mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a processor of a first mobile device, the method comprising the steps of: receiving a first sensor signal from a first sensor of the first mobile device, the first sensor signal being associated with a movement of the first mobile device in a predefined pattern, and the first sensor configured to detect the movement of the first mobile device; receiving a second sensor signal from a touch-sensitive interface of the first mobile device, the second sensor signal being associated with an interaction with the first mobile device; transmitting a first data signal to a network interface of the first mobile device, the first data signal comprising data associated with the interaction with the first mobile device and the movement of the first mobile device in the predefined pattern, and the network interface being configured to transmit the first data signal to a second mobile device; receiving a second data signal from the network interface of the first mobile device, the network interface being further configured to receive signals transmitted by the second mobile device, wherein the second data signal comprises data corresponding to a user interaction with a touch-sensitive interface of the second mobile device; determining a change in a display of the first mobile device based at least in part on the second data signal and the second sensor signal; determining a haptic effect based at least in part on the second data signal; and transmitting a haptic signal associated with the haptic effect to an actuator of the first mobile device, the actuator being configured to output the haptic effect. receiving a first sensor signal from a first sensor of the first mobile device, the first sensor signal being associated with a movement of the first mobile device in a predefined pattern, and the first sensor configured to detect the movement of the first mobile device; receiving a second sensor signal from a touch-sensitive interface of the first mobile device, the second sensor signal being associated with an interaction with the first mobile device; transmitting a first data signal to a network interface of the first mobile device, the first data signal comprising data associated with the interaction with the first mobile device and the movement of the first mobile device in the predefined pattern, and the network interface being configured to transmit the first data signal to a second mobile device; receiving a second data signal from the network interface of the first mobile device, the network interface being further configured to receive signals transmitted by the second mobile device, wherein the second data signal comprises data corresponding to a user interaction with a touch-sensitive interface of the second mobile device; determining a change in a display of the first mobile device based at least in part on the second data signal and the second sensor signal; determining a haptic effect based at least in part on the second data signal; and transmitting a haptic signal associated with the haptic effect to an actuator of the first mobile device, the actuator being configured to output the haptic effect.
A removal element for the removal from an injection moulding tool of a hollow moulded article having a moulded article interior and a moulded article opening, which is bordered by a moulded article rim, wherein the removal element has a base part (2, 22, 32) and a plate (3, 23, 33) which can be moved relative to the base part (2, 22, 32) between an advanced position and a retracted position, wherein a spring element (4, 24, 34) is provided with which the plate (3, 23, 33) is urged into its advanced position, wherein the plate (3, 23, 33) is configured so that it comes into contact with the rim of the moulded article in such a manner that it seals the opening of the moulded article and is moved from the advanced position into the retracted position by means of the contact with the rim of the moulded article, wherein a fluid runner with a runner inlet (6, 26, 36) and a runner outlet (7, 27, 37) is provided, wherein the runner inlet (6, 26, 36) and runner outlet (7, 27, 37) are disposed in such a manner that when the plate (3, 23, 33) is in the retracted position, the runner outlet (7, 27, 37) to the moulded article interior opens, so that when the runner inlet (6, 26, 36) is connected to a vacuum source, fluid can be aspirated from the interior of the moulded article via the fluid runner, wherein a valve element with a valve passage is disposed between the runner inlet (6, 26, 36) and runner outlet (7, 27, 37) or on the fluid runner, wherein in a first valve position, the cross section of the valve passage is larger than in a second valve position, characterized in that the valve passage is open in the advanced position and in the retracted position of the plate (3, 23, 33), wherein the dimensions of the valve element are such that in the advanced position, when the fluid pressure at the runner inlet (6, 26, 36) is lower than at the runner outlet (7, 27, 37), the valve element moves into the second valve position, whereas in the retracted position, the valve element is always in the first valve position.
A glass panel unit manufacturing method, comprising: an adhesive disposing step of disposing a glass adhesive on a first substrate, the glass adhesive including glass powder and a binder and having a shape of a frame having one part formed as a low step part, the first substrate including at least a first glass substrate, the low step part having a thickness smaller than a thickness of a remaining part of the frame; an opposite disposition step of disposing a second substrate including at least a second glass substrate to face the first substrate; an inner space forming step of heating a glass composite including the first substrate, the second substrate, and the glass adhesive to remove the binder and to melt the glass adhesive to form an inner space surrounded by a melted substance of the glass adhesive between the first substrate and the second substrate; a pressure reducing step of removing gas in the inner space to reduce a pressure of the inner space; and a vacuum space forming step of hermetically enclosing the inner space while keeping the inner space in a pressure-reduced state to form a vacuum space which is hermetically separated from the inner space. an adhesive disposing step of disposing a glass adhesive on a first substrate, the glass adhesive including glass powder and a binder and having a shape of a frame having one part formed as a low step part, the first substrate including at least a first glass substrate, the low step part having a thickness smaller than a thickness of a remaining part of the frame; an opposite disposition step of disposing a second substrate including at least a second glass substrate to face the first substrate; an inner space forming step of heating a glass composite including the first substrate, the second substrate, and the glass adhesive to remove the binder and to melt the glass adhesive to form an inner space surrounded by a melted substance of the glass adhesive between the first substrate and the second substrate; a pressure reducing step of removing gas in the inner space to reduce a pressure of the inner space; and a vacuum space forming step of hermetically enclosing the inner space while keeping the inner space in a pressure-reduced state to form a vacuum space which is hermetically separated from the inner space.
A device at a portable display panel system comprising a rack, at least one pair of upper and a lower holder ribs (6, 7) included in the rack, and a cloth or a panel of a printable material, such as fabric, stretched between said pair of upper and lower holder ribs, said holder ribs (6, 7) consisting of at least two longitudinal rods of a predetermined shape, which rods are provided with a through-cavity, whereby an elastic string, preferably of rubber, extends through each of said upper and lower rods, respectively, which strings are attached to the outer ends of the outermost rods, characterized in that it comprises male and female couplings (34, 35), respectively, which with shape adaption are received and fixed to the abutting ends of the rods, which are arranged as pairs with said upper and lower holder ribs (6, 7) and are so designed, that they may be brought together in two positions which are turned by 180° or in four positions which are turned by 90° relative each other, whereby at least a pair of the rods of the upper as well as the lower holder ribs (6 and 7, respectively) are curved or bent, said female coupling having a through-hole, an end part mating the inner shape of the rod, which end part is fixed to the rod, an annular collar, which is arranged to abut against the end surface of the rod, and a conical recess, which has a longitudinal groove and which is arranged with shape mating to receive the conical male part with the ridges of the male coupling.
A puncture device comprising: a puncture needle including a needle main body for puncturing a living body tissue, and an extension needle insertable into the needle main body and provided for movement relative to the needle main body along a longitudinal direction of the needle main body for puncturing the living body tissue; and extension means for moving the extension needle in a direction toward a distal end of the needle main body with respect to the needle main body to extend the puncture needle, characterized in that the extension needle has a hollow portion, extending from the proximal end to the distal end thereof, and the extension means is inserted into the hollow portion of the extension needle to push a distal end portion of the extension needle to move the extension needle. a puncture needle including a needle main body for puncturing a living body tissue, and an extension needle insertable into the needle main body and provided for movement relative to the needle main body along a longitudinal direction of the needle main body for puncturing the living body tissue; and extension means for moving the extension needle in a direction toward a distal end of the needle main body with respect to the needle main body to extend the puncture needle, characterized in that the extension needle has a hollow portion, extending from the proximal end to the distal end thereof, and the extension means is inserted into the hollow portion of the extension needle to push a distal end portion of the extension needle to move the extension needle.
Device comprising: - an object comprising a heating acupuncture needle, pointed and cylindrical, biocompatible, and which comprises at least one ferromagnetic material - a magnetic field generator suitable for directing the magnetic field of the ferromagnetic material in order to produce an increase in the temperature in the heating acupuncture needle of the object, and - a device for controlling the temperature of the heating acupuncture needle of the object characterised in that said magnetic field generator has a shape of a hollow cylindrical pebble, intended to be placed on the skin, which comprises an orifice passed through perpendicularly by said object; and in that the magnetic field generator has a diameter ranging from 20 mm to 80 mm, and a thickness ranging from 0.5 mm to 25 mm. - an object comprising a heating acupuncture needle, pointed and cylindrical, biocompatible, and which comprises at least one ferromagnetic material - a magnetic field generator suitable for directing the magnetic field of the ferromagnetic material in order to produce an increase in the temperature in the heating acupuncture needle of the object, and - a device for controlling the temperature of the heating acupuncture needle of the object characterised in that said magnetic field generator has a shape of a hollow cylindrical pebble, intended to be placed on the skin, which comprises an orifice passed through perpendicularly by said object; and in that the magnetic field generator has a diameter ranging from 20 mm to 80 mm, and a thickness ranging from 0.5 mm to 25 mm.
A computer-implemented neural network data quantizing method, the method comprising: obtaining local quantization data (960; 1113, 1123) by firstly quantizing, based on a local maximum value for each output channel of a current layer of a neural network, global recovery data (950; 1010, 1020, 1030, 1040; 1112, 1122) obtained by recovering output data (940; 1111, 1121) of an operation of the current layer based on a global maximum value corresponding to a previous layer of the neural network; storing the local quantization (960; 1113, 1123) data in a memory to perform an operation of a next layer of the neural network; obtaining global quantization data (990; 1115, 1125) by secondarily quantizing, based on a global maximum value corresponding to the current layer, local recovery data (980; 1114, 1124) obtained by recovering the local quantization data (960, 970; 1113, 1123) based on the local maximum value for each output channel of the current layer, wherein data recovery means that data is de-quantized into a scale previous to quantization; and providing the global quantization data (990; 1115, 1125) as input data for the operation of the next layer. obtaining local quantization data (960; 1113, 1123) by firstly quantizing, based on a local maximum value for each output channel of a current layer of a neural network, global recovery data (950; 1010, 1020, 1030, 1040; 1112, 1122) obtained by recovering output data (940; 1111, 1121) of an operation of the current layer based on a global maximum value corresponding to a previous layer of the neural network; storing the local quantization (960; 1113, 1123) data in a memory to perform an operation of a next layer of the neural network; obtaining global quantization data (990; 1115, 1125) by secondarily quantizing, based on a global maximum value corresponding to the current layer, local recovery data (980; 1114, 1124) obtained by recovering the local quantization data (960, 970; 1113, 1123) based on the local maximum value for each output channel of the current layer, wherein data recovery means that data is de-quantized into a scale previous to quantization; and providing the global quantization data (990; 1115, 1125) as input data for the operation of the next layer.
A system for joint arthroplasty repairing a diseased or damaged joint of a patient, the system comprising: a guide template or mold including a patient-specific contact surface for engaging a corresponding surface portion of the diseased or damaged joint; and a guide sized and shaped to accommodate a surgical instrument, wherein the guide has a position and orientation relative to the patient-specific surface to provide a predetermined path for the surgical instrument characterised in that: the said surface portion includes an osteophyte; and in that the contact surface is configured to cover or rest on at least a portion of the osteophyte; and in that the shape of the patient-specific contact surface is based, at least in part, on electronic image data. a guide template or mold including a patient-specific contact surface for engaging a corresponding surface portion of the diseased or damaged joint; and a guide sized and shaped to accommodate a surgical instrument, wherein the guide has a position and orientation relative to the patient-specific surface to provide a predetermined path for the surgical instrument characterised in that: the said surface portion includes an osteophyte; and in that the contact surface is configured to cover or rest on at least a portion of the osteophyte; and in that the shape of the patient-specific contact surface is based, at least in part, on electronic image data. the said surface portion includes an osteophyte; and in that the contact surface is configured to cover or rest on at least a portion of the osteophyte; and in that the shape of the patient-specific contact surface is based, at least in part, on electronic image data.
A process for producing reclaimed casting sand, which comprises step of grinding recovered sand in the presence of an additive comprising a liquid having a surface tension of not higher than 35 mN/m at 25°C and a boiling point of not lower than 150°C at 1 atmospheric pressure.
Luminaire module having an arrangement of a plurality of LEDs, and an arrangement of a plurality of free-form lenses which are each assigned to one of the LEDs, wherein each of the free-form lenses has a light entry surface facing the assigned LED and, opposite, at least one light exit surface, and having an arrangement of reflector strips or absorption strips, wherein each of the reflector strips or absorption strips is in each case arranged laterally with respect to a free-form lens in order to deflect or block a part of the light emerging from the light exit surface of the respective free-form lens, wherein each of the free-form lenses has a first section in which light which runs from the light entry surface to the light exit surface is deflected by reflection, in particular total reflection, and a second light-deflecting section which has a light-deflecting boundary surface which forms a part of the light exit surface, characterized in that reflector strips or absorption strips in each case form a planar reflection surface or absorption surface which is inclined with respect to an optical axis of the LED assigned thereto at an angle of between 3° and 30°. and having an arrangement of reflector strips or absorption strips, wherein each of the reflector strips or absorption strips is in each case arranged laterally with respect to a free-form lens in order to deflect or block a part of the light emerging from the light exit surface of the respective free-form lens, wherein each of the free-form lenses has a first section in which light which runs from the light entry surface to the light exit surface is deflected by reflection, in particular total reflection, and a second light-deflecting section which has a light-deflecting boundary surface which forms a part of the light exit surface, characterized in that reflector strips or absorption strips in each case form a planar reflection surface or absorption surface which is inclined with respect to an optical axis of the LED assigned thereto at an angle of between 3° and 30°.
Expansible anchor for an anchoring in an anchoring hole in an anchoring substrate, having an expansion sleeve which is expansible in order to anchor the expansible anchor in the anchoring hole, and having an expander body which is arranged to be drawn into the expansion sleeve in order to expand the expansion sleeve, characterised in that the expansible anchor has a tensioning device for the expansion sleeve, which tensioning device holds the expansion sleeve under tension in a non-expanded setting position in such a way that the expansion sleeve itself is under tension; and the expansion sleeve expands as a result of the tension when it comes free of the tensioning device.
Apparatus for driving an electrical load, wherein the apparatus comprises the following: - a controllable current source for providing a control current; - a switching device for controlling a load current depending on the control current, - a sampling device for determining a time delay between a driving of the current source and the enabling or interruption of a current flow by the switching device, characterized by - a processing device for determining that the current source is defective if the time delay is outside a predetermined range. - a controllable current source for providing a control current; - a switching device for controlling a load current depending on the control current, - a sampling device for determining a time delay between a driving of the current source and the enabling or interruption of a current flow by the switching device, - a processing device for determining that the current source is defective if the time delay is outside a predetermined range.
A circuit applied to a biopotential acquisition system, comprising: an amplifier, for receiving input signals from two input electrodes of the biopotential acquisition system to generate differential output signals (Voutp, Voutn); an electrode mismatch compensation circuit, coupled to the amplifier and configured to receive the differential output signals (Voutp, Voutn) and to generate and output adjusted differential output signals (Voutp', Voutn') according to a compensation signal; an electrode mismatch detection circuit configured to detect the power line frequency component of the adjusted differential output signals (Voutp', Voutn') and to generate and output the compensation signal to the electrode mismatch compensation circuit; an active current source, for providing a current to two input terminals of the circuit, wherein the two input terminals of the circuit are coupled to two input electrodes of the biopotential acquisition system; and a feedback circuit, for generating a control signal to control the active current source according to the differential output signals (Voutp, Voutn), wherein the feedback circuit receives a common mode signal of the differential output signals (Voutp, Voutn)to generate the control signal to control the active current source. an amplifier, for receiving input signals from two input electrodes of the biopotential acquisition system to generate differential output signals (Voutp, Voutn); an electrode mismatch compensation circuit, coupled to the amplifier and configured to receive the differential output signals (Voutp, Voutn) and to generate and output adjusted differential output signals (Voutp', Voutn') according to a compensation signal; an electrode mismatch detection circuit configured to detect the power line frequency component of the adjusted differential output signals (Voutp', Voutn') and to generate and output the compensation signal to the electrode mismatch compensation circuit; an active current source, for providing a current to two input terminals of the circuit, wherein the two input terminals of the circuit are coupled to two input electrodes of the biopotential acquisition system; and a feedback circuit, for generating a control signal to control the active current source according to the differential output signals (Voutp, Voutn), wherein the feedback circuit receives a common mode signal of the differential output signals (Voutp, Voutn)to generate the control signal to control the active current source.
An arrangement of transmitter modules, each transmitter module being arranged for being connected with other transmitter modules for transmitting power inductively to a receiver, wherein a transmitter module of the arrangement of transmitter modules comprises: - at least one transmitter cell, each transmitter cell having one transmitter coil by which the transmitter cell is suitable for transmitting power to the receiver, - the transmitter module having an outer periphery being shaped so as to fit to neighboring transmitter modules for forming a power transmitting surface, the at least one transmitter cell and the transmitter module being arranged such that the power transmitting surface is constituted by an uninterrupted pattern of adjacent transmitter coils extending in said surface, and - interconnection units (110,111) for connecting with neighboring transmitter modules for sharing a power supply, characterised in that the outer periphery of the transmitter module is shaped according to an outer periphery of a regular hexagon or according to an outer periphery of an uninterrupted regular arrangement of adjacent regular hexagons. - at least one transmitter cell, each transmitter cell having one transmitter coil by which the transmitter cell is suitable for transmitting power to the receiver, - the transmitter module having an outer periphery being shaped so as to fit to neighboring transmitter modules for forming a power transmitting surface, the at least one transmitter cell and the transmitter module being arranged such that the power transmitting surface is constituted by an uninterrupted pattern of adjacent transmitter coils extending in said surface, and - interconnection units (110,111) for connecting with neighboring transmitter modules for sharing a power supply,