mhurhangee/ep-ind-claims huggingface dataset:
An extraction arm for an extraction device having a suction pipe and a suction head, wherein the extraction arm defines a suction path that extends from an extraction region (36, 38) in the surroundings of the suction head through the suction pipe to the extraction device; the extraction arm comprises an exchangeable filter which is arranged within the suction path; the filter is accommodated in a filter housing and the filter housing is designed to connect the filter and the suction pipe in an airtight manner; the filter housing has a main body which is connected to the suction pipe and a removable cover for closing the filter housing; the suction head comprises an extraction hood, which is connected to the main body and in the center of which the filter housing is located; the cover of the filter housing is releasably attached to the main body by a latching means; the latching means comprises a spring element on the cover, which spring element extends through a recess in the extraction hood in order to latch with the main body, so that the spring element can be released by hand outside the extraction region. the extraction arm defines a suction path that extends from an extraction region (36, 38) in the surroundings of the suction head through the suction pipe to the extraction device; the extraction arm comprises an exchangeable filter which is arranged within the suction path; the filter is accommodated in a filter housing and the filter housing is designed to connect the filter and the suction pipe in an airtight manner; the filter housing has a main body which is connected to the suction pipe and a removable cover for closing the filter housing; the suction head comprises an extraction hood, which is connected to the main body and in the center of which the filter housing is located; the cover of the filter housing is releasably attached to the main body by a latching means; the latching means comprises a spring element on the cover, which spring element extends through a recess in the extraction hood in order to latch with the main body, so that the spring element can be released by hand outside the extraction region.
Process for producing a component having increased thermal conductivity by layerwise construction, where at least one section of the component is built up by carrying out, at least once, a step which comprises at least the following: a) applying a layer section having predetermined dimensions of a composite material composed of a metal and/or a metal alloy and particles of highly thermally conductive material which comprises diamond and/or cubic boron nitride in a predetermined region to a base layer by melting the metal or the metal alloy by means of a heat source in such a way that the metal and/or the metal alloy forms a contiguous matrix in which particles of the highly thermally conductive material are embedded within the predetermined dimensions and subsequently allowing the layer section to cool, with the proviso that the metal is, insofar as it is not a constituent of the metal alloy, not selected from among the alkali metals and calcium, strontium, barium or radium, characterized in that the size of the particles of the highly thermally conductive material which comprises diamond and/or cubic boron nitride is in the range from 6 μm to 250 μm, where the size distribution is bimodal or trimodal, the highly thermally conductive material consists of particles of diamond and/or cubic boron nitride which have been etched or roughened by oxidation and the proportion of the highly thermally conductive material in the composite material produced is from 40% by volume to 80% by volume. a) applying a layer section having predetermined dimensions of a composite material composed of a metal and/or a metal alloy and particles of highly thermally conductive material which comprises diamond and/or cubic boron nitride in a predetermined region to a base layer by melting the metal or the metal alloy by means of a heat source in such a way that the metal and/or the metal alloy forms a contiguous matrix in which particles of the highly thermally conductive material are embedded within the predetermined dimensions and subsequently allowing the layer section to cool, with the proviso that the metal is, insofar as it is not a constituent of the metal alloy, not selected from among the alkali metals and calcium, strontium, barium or radium, characterized in that the size of the particles of the highly thermally conductive material which comprises diamond and/or cubic boron nitride is in the range from 6 μm to 250 μm, where the size distribution is bimodal or trimodal, the highly thermally conductive material consists of particles of diamond and/or cubic boron nitride which have been etched or roughened by oxidation and the proportion of the highly thermally conductive material in the composite material produced is from 40% by volume to 80% by volume.
A portable fluid collection apparatus comprising: a fluid reservoir for receiving fluid produced by a person; detection means for detecting a property of fluid within the fluid reservoir; processor means configured to receive data from the detection means and determine the level of fluid within the fluid reservoir; and signal means for producing an audible, visual, or tactile signal, wherein said processor means is configured to activate said signal means to produce said signal when the determined level of fluid within the fluid reservoir exceeds a predetermined threshold; wherein said detection means comprises means for measuring a property of fluid between a first position and a second position spaced from said first position; characterised in that said processor means is configured to receive a data packet from the detection means a plurality of times per second and determine that the level of fluid within the fluid reservoir exceeds said predetermined threshold, and the processor means is further configured to only activate said signal means to produce a signal when said processor means determines that the level of fluid within the fluid reservoir exceeds said predetermined threshold over a predetermined number of successive data packets. a fluid reservoir for receiving fluid produced by a person; detection means for detecting a property of fluid within the fluid reservoir; processor means configured to receive data from the detection means and determine the level of fluid within the fluid reservoir; and signal means for producing an audible, visual, or tactile signal, wherein said processor means is configured to activate said signal means to produce said signal when the determined level of fluid within the fluid reservoir exceeds a predetermined threshold; wherein said detection means comprises means for measuring a property of fluid between a first position and a second position spaced from said first position; characterised in that said processor means is configured to receive a data packet from the detection means a plurality of times per second and determine that the level of fluid within the fluid reservoir exceeds said predetermined threshold, and the processor means is further configured to only activate said signal means to produce a signal when said processor means determines that the level of fluid within the fluid reservoir exceeds said predetermined threshold over a predetermined number of successive data packets.
System for determining the position of an X-ray imaging apparatus mounted on an automatic mobile device, characterized in that the system comprises a mechanical link having two mutually opposite ends, wherein one of the two mutually opposite ends is adapted to act, in use, as a reference point jointed to a fixed support element and the other of the two mutually opposite ends is adapted to be jointed to an erected arm with which the automatic mobile device is provide; a set of at least three measuring means for measuring a variation of the rotation angles of said link relating to the support element and to the erected arm when moved, wherein the link comprises at least two beams (19,20) jointed to each other and wherein the system comprises a first measuring means mounted on a first joint linking the first beam to the reference point, second measuring means mounted on a second joint linking the two beams (19, 20) and third measuring means mounted on a third joint linking the second beam to the erected arm.
Power resistor with electrical connections (6.1, 6.2), with at least one resistor housing encapsulated with grouting compound (26.1), which resistor housing has at least one resistor element, more particularly made of a thick-film material, and which, on a first outer side (2.1) has a first contact surface for a heat sink, and with an electronic circuit for diagnosis and/or monitoring of the power resistor, characterized in that the power resistor has a plug-on housing which is formed for, more particularly releasable, mechanical connection to the resistor housing while keeping the first contact surface free and encapsulates the circuit.
A contact device, comprising: a fixed contact member including a fixed contact; a movable contact member which includes a movable contact and is movable between a position where the movable contact is in contact with the fixed contact and a position where the movable contact is away from the fixed contact; an armature; a driver for driving the armature; a contact spring for holding the movable contact so as to allow the movable contact to be in contact with and separate from the fixed contact; at least one of the fixed contact member and the movable contact member further including a protrusion (7100 to 7108) which protrudes from a face to which a corresponding contact is provided, in a direction same as a protruding direction of the corresponding contact, and characterised by a card interconnecting the armature and the contact spring, the card being fixed to each of the armature and the contact spring, and the card being configured to be flexible in a thickness direction of the card. a fixed contact member including a fixed contact; a movable contact member which includes a movable contact and is movable between a position where the movable contact is in contact with the fixed contact and a position where the movable contact is away from the fixed contact; an armature; a driver for driving the armature; a contact spring for holding the movable contact so as to allow the movable contact to be in contact with and separate from the fixed contact; at least one of the fixed contact member and the movable contact member further including a protrusion (7100 to 7108) which protrudes from a face to which a corresponding contact is provided, in a direction same as a protruding direction of the corresponding contact, and characterised by a card interconnecting the armature and the contact spring, the card being fixed to each of the armature and the contact spring, and the card being configured to be flexible in a thickness direction of the card.
A content server for delivering a content item on demand to communications devices, comprising: a network interface configured to receive a content request from each of the communications devices and, in response to the received content requests, to transmit the content item to each of the communications devices following the arrival of a predetermined time using a network and one of a plurality of wireless access interfaces (108, 110, 112), each of the wireless access interfaces being configured to transmit and/or receive signals using a different radio access technology; and a control unit configured to cause the content transmitter to select one of the wireless access interfaces (108, 110, 112) for transmitting the content item based on the number of content requests received prior to the arrival of the predetermined time; wherein the network interface is configured to transmit a signalling message to each of the communications devices signalling the selected wireless access interface (108, 110, 112) prior to transmitting the content item. a network interface configured to receive a content request from each of the communications devices and, in response to the received content requests, to transmit the content item to each of the communications devices following the arrival of a predetermined time using a network and one of a plurality of wireless access interfaces (108, 110, 112), each of the wireless access interfaces being configured to transmit and/or receive signals using a different radio access technology; and a control unit configured to cause the content transmitter to select one of the wireless access interfaces (108, 110, 112) for transmitting the content item based on the number of content requests received prior to the arrival of the predetermined time; wherein the network interface is configured to transmit a signalling message to each of the communications devices signalling the selected wireless access interface (108, 110, 112) prior to transmitting the content item.
A high-voltage MEMS biasing network having a reset mode wherein a capacitive sensor is charged, and a functional mode wherein the MEMS biasing network provides a high impedance between the capacitive sensor and a bias voltage source, the network comprising: a biasing circuit having a charging state and a high impedance state; said biasing circuit being coupled between the bias voltage source and the capacitive sensor; a mirror circuit having a charging state and a high impedance state; and a control circuit including a first branch that controls the biasing circuit and a second branch that controls the mirror circuit; wherein the biasing network is adapted to receive a logic control signal, and when the logic control signal is a first logic signal, the first branch is adapted to put the biasing circuit into the charging state and the second branch is adapted to put the mirror circuit in a high impedance state, and when the logic control signal is a second logic signal, the first branch is adapted to put the biasing circuit into the high impedance state and the second branch is adapted to put the mirror circuit in a charging state; characterized in that the mirror circuit is coupled between the bias voltage source and a capacitor, and the capacitive sensor and the capacitor are coupled to ground. a biasing circuit having a charging state and a high impedance state; said biasing circuit being coupled between the bias voltage source and the capacitive sensor; a mirror circuit having a charging state and a high impedance state; and a control circuit including a first branch that controls the biasing circuit and a second branch that controls the mirror circuit; wherein the biasing network is adapted to receive a logic control signal, and when the logic control signal is a first logic signal, the first branch is adapted to put the biasing circuit into the charging state and the second branch is adapted to put the mirror circuit in a high impedance state, and when the logic control signal is a second logic signal, the first branch is adapted to put the biasing circuit into the high impedance state and the second branch is adapted to put the mirror circuit in a charging state;
A structured food product with a hard texture, which shows a texture, measured on a tablet of said structured food product which has a thickness of 7 mm and is stabilised for 1 week at 20°C, of at least 3000 g, when measured with an SMS-texture meter equipped with a cylindrical probe of 3 mm diameter, which is advanced to penetrate the food product at a speed of 0.5 mm/sec, the product containing between 20 and 100% of a fat phase and between 0 and 15% of water, whereby the fat composition of the fat phase contains - between 10 and 55 wt% of at least one liquid oil with a saturated fatty acid content of less than 25 wt. % with respect to the weight of the liquid oil, and - between 45 and 90 wt. % of a hard fat component with a StOSt/POP ratio of at least 2, preferably at least 2.5, most preferably at least 3.0, wherein St is stearic acid, P is Palmitic acid and O is Oleic acid, and whereby the food product contains less than 57 wt. % of saturated fatty acids with respect to the total weight of the fat phase. - between 10 and 55 wt% of at least one liquid oil with a saturated fatty acid content of less than 25 wt. % with respect to the weight of the liquid oil, and - between 45 and 90 wt. % of a hard fat component with a StOSt/POP ratio of at least 2, preferably at least 2.5, most preferably at least 3.0, wherein St is stearic acid, P is Palmitic acid and O is Oleic acid, and
A separation module, configured to control transmission of data between different nodes in a network: the separation module being operatively connectible between a phy, physical layer, and a respective switching fabric in a network device operable to communicate data in a communication network; the separation module being configured to control data communication in the communication network, the separation module comprising an assigned network-id associating the separation module with a given network environment; the network environment comprises a group (A, B, C) of one or more nodes within the network; the separation module being further configured to: tag, based on the network-id, a payload of a data packet received by the network device to be forwarded in a first direction, in order to associate the data packet with the given network environment; and determine whether a tag, associated with a payload of a data packet received by the network device to be forwarded in a second direction, is compatible with the assigned network-id, and if it is, remove the tag from the payload of the data packet and allow transmission of the data packet between nodes that are part of the same network environment. the separation module being operatively connectible between a phy, physical layer, and a respective switching fabric in a network device operable to communicate data in a communication network; the separation module being configured to control data communication in the communication network, the separation module comprising an assigned network-id associating the separation module with a given network environment; the network environment comprises a group (A, B, C) of one or more nodes within the network; the separation module being further configured to: tag, based on the network-id, a payload of a data packet received by the network device to be forwarded in a first direction, in order to associate the data packet with the given network environment; and determine whether a tag, associated with a payload of a data packet received by the network device to be forwarded in a second direction, is compatible with the assigned network-id, and if it is, remove the tag from the payload of the data packet and allow transmission of the data packet between nodes that are part of the same network environment. tag, based on the network-id, a payload of a data packet received by the network device to be forwarded in a first direction, in order to associate the data packet with the given network environment; and determine whether a tag, associated with a payload of a data packet received by the network device to be forwarded in a second direction, is compatible with the assigned network-id, and if it is, remove the tag from the payload of the data packet and allow transmission of the data packet between nodes that are part of the same network environment.
An apparatus comprising an electronic display and a stationary part, the stationary part configured to overlie the display face of the electronic display, the electronic display face configured to vibrate with respect to the stationary part, vibration of the electronic display face configured to displace air adjacent to the plane of the electronic display to generate sound waves in the direction of the stationary part, wherein the stationary part comprises one or more holes configured to enable the generated sound waves to radiate through the stationary part, wherein the electronic display is positioned between the stationary part and an additional stationary part, wherein the additional stationary part comprises one or more holes configured to enable the generated sound waves to radiate through the additional stationary part.
Method for securing communications in a network comprising at least one emitter terminal A and one receiver terminal B, characterized in that it comprises in combination at least the following steps: 1) defining a measurable quantity that obeys a periodic physical or natural law and that does not change over the duration of the securing of the communications that can be measured at the emitter A and the receiver B; 2) normalizing and quantifying said defined quantity; 3) initializing an initialization vector with said normalized and quantified quantity; 4) using said initialization vector with a cryptographic key to randomly generate a set of consecutive frequencies to use for securing said communications between the emitter A and the receiver B; and 5) incrementing the initialization vector by a given value after each pseudo-random generation time interval Itpa in order to generate a set of consecutive frequency values. 1) defining a measurable quantity that obeys a periodic physical or natural law and that does not change over the duration of the securing of the communications that can be measured at the emitter A and the receiver B; 2) normalizing and quantifying said defined quantity; 3) initializing an initialization vector with said normalized and quantified quantity; 4) using said initialization vector with a cryptographic key to randomly generate a set of consecutive frequencies to use for securing said communications between the emitter A and the receiver B; and 5) incrementing the initialization vector by a given value after each pseudo-random generation time interval Itpa in order to generate a set of consecutive frequency values.
A positive electrode active material, satisfying a chemical formula Li 1+ x (Ni a Co b Mn c) 1- d M d O 2- y A y, wherein M is one or more selected from Zr, Sr, B, Ti, Mg, Sn and Al, A is one or more selected from S, N, F, Cl, Br and I, -0.01 ≤ x ≤ 0.2, a ≥ 0.5, 0.12 ≤ b / c ≤ 0.9, 0.002 ≤ b × c / a 2 ≤ 0.23, a + b + c = 1, 0 ≤ d ≤ 0.1, and 0 ≤ y < 0.2; and an interval particle size distribution curve of the positive electrode active material has a full width at half maximum D FW of from 4 μm to 8 μm.
A power pack for use in an autoinjector to deliver a drug from a container at an injection rate, the power pack comprising: a power pack body having a canister therein configured to hold a liquefied gas, characterized by the power pack body further including: a flow regulator (146, 6902, 7502), and at least one outlet through which some of the liquefied gas in the canister can exit the power pack in a gaseous state such that, during use, the flow regulator will control a rate of exit flow so that the liquefied gas in the canister is maintained at substantially its vapor pressure, while the gas leaving the outlet is at a reduced pressure that applies an adaptive force to drive the drug from in the container. a flow regulator (146, 6902, 7502), and at least one outlet through which some of the liquefied gas in the canister can exit the power pack in a gaseous state such that, during use, the flow regulator will control a rate of exit flow so that the liquefied gas in the canister is maintained at substantially its vapor pressure, while the gas leaving the outlet is at a reduced pressure that applies an adaptive force to drive the drug from in the container.