mhurhangee/ep-ind-claims huggingface dataset:
A device for generating high pressures in solid and liquid media, including: - a lower shell-shaped body half and an upper shell-shaped body half, - a lower elastic membrane and an upper elastic membrane, which are each inserted into the lower body half and into the upper body half, and the respective body half (2, 3) and the respective membrane (6, 7) inserted into its each surround a pressure chamber (62, 73), - an opening and a channel in the lower body half, in order to attach an oil line from an oil pump to the device and to pump the oil into the pressure chamber between the lower body half and the elastic membrane inserted into it, wherein the pressure chambers (62, 73) in the lower body half and in the upper body half communicate by means of a line, characterized in that the line connects the pressure chambers (62, 73) in the lower body half and the upper body half permanently with one another in both the open and the closed state of the device and includes a pipeline, which is embodied in the form of a helical spring line and extends outside the lower shell-shaped body half and the upper shell-shaped body half. - a lower shell-shaped body half and an upper shell-shaped body half, - a lower elastic membrane and an upper elastic membrane, which are each inserted into the lower body half and into the upper body half, and the respective body half (2, 3) and the respective membrane (6, 7) inserted into its each surround a pressure chamber (62, 73), - an opening and a channel in the lower body half, in order to attach an oil line from an oil pump to the device and to pump the oil into the pressure chamber between the lower body half and the elastic membrane inserted into it, wherein the pressure chambers (62, 73) in the lower body half and in the upper body half communicate by means of a line,
A compute apparatus adapted to perform machine learning operations, the compute apparatus comprising: a decode unit adapted to decode a single instruction into a decoded instruction, the decoded instruction to perform one or more machine learning operations, wherein the decode unit, based on parameters of the one or more machine learning operations, is adapted to request a scheduler to schedule the one or more machine learning operations to one of an array of programmable compute units (1424A-N) and a fixed function compute unit, wherein the decode unit includes fetch logic to fetch the single instruction, wherein the single instruction is a machine learning compute instruction, wherein the machine learning compute instruction is a convolution instruction and the one or more machine learning operations include a convolution operation, wherein the convolution operation includes multiple matrix operations, and wherein the decode unit is adapted to request the scheduler to schedule the multiple matrix operations to one of the array of programmable compute units (1424A-N) and the fixed function compute unit based on a size of a convolution filter. a decode unit adapted to decode a single instruction into a decoded instruction, the decoded instruction to perform one or more machine learning operations, wherein the decode unit, based on parameters of the one or more machine learning operations, is adapted to request a scheduler to schedule the one or more machine learning operations to one of an array of programmable compute units (1424A-N) and a fixed function compute unit, wherein the decode unit includes fetch logic to fetch the single instruction, wherein the single instruction is a machine learning compute instruction, wherein the machine learning compute instruction is a convolution instruction and the one or more machine learning operations include a convolution operation, wherein the convolution operation includes multiple matrix operations, and wherein the decode unit is adapted to request the scheduler to schedule the multiple matrix operations to one of the array of programmable compute units (1424A-N) and the fixed function compute unit based on a size of a convolution filter.
Apparatus for delivering at least one agent to a wound site, comprising: a drape (14, 1305,1501,1502) for covering a wound site; and a delivery tube (1005, 1202, 1400) comprising a substantially T-shaped portion (1203, 1403) comprising an outlet, an agent inlet port (1006, 1204) and an air inlet port (1208, 1404); wherein the air inlet port (1208, 1204) comprises an air filter (1009, 1206, 1405) characterised in that the air inlet port (1208, 1404) allows the agent inlet port (1006, 1204) to be flushed and helps the removal of large volumes of fluid from the wound. a drape (14, 1305,1501,1502) for covering a wound site; and a delivery tube (1005, 1202, 1400) comprising a substantially T-shaped portion (1203, 1403) comprising an outlet, an agent inlet port (1006, 1204) and an air inlet port (1208, 1404); wherein the air inlet port (1208, 1204) comprises an air filter (1009, 1206, 1405) characterised in that the air inlet port (1208, 1404) allows the agent inlet port (1006, 1204) to be flushed and helps the removal of large volumes of fluid from the wound.
A method of filling a chamber of a muffler with texturized fibrous material, the method comprising: extending a wand into said muffler so that a nozzle on said wand is received in said chamber, said nozzle including a proximal end and a distal end with an axis A extending between said proximal end and said distal end; discharging a stream of texturized fibrous material at an angle of at least 90 degrees relative to said axis A toward said chamber from a first passageway of said nozzle; and characterized by comprising discharging a directional jet into said stream of texturized fibrous material from a second passageway of said nozzle to redirect said stream of texturized fibrous material into an acute angle of less than 90 degrees relative to said axis A. extending a wand into said muffler so that a nozzle on said wand is received in said chamber, said nozzle including a proximal end and a distal end with an axis A extending between said proximal end and said distal end; discharging a stream of texturized fibrous material at an angle of at least 90 degrees relative to said axis A toward said chamber from a first passageway of said nozzle; and characterized by comprising discharging a directional jet into said stream of texturized fibrous material from a second passageway of said nozzle to redirect said stream of texturized fibrous material into an acute angle of less than 90 degrees relative to said axis A.
A method for producing a cathode mixture used for a sulfur battery, characterized in that the cathode mixture is produced by a mechanical milling treatment of a raw material mixture including: Li 2 S and M x S y wherein M is selected from P, Si, Ge, B, Al, or Sn, and x and y are integers that confer an electroneutrality with respect to S according to a kind of M, a cathode active material including a sulfur simple substance, and a conductive aid including a carbon material. Li 2 S and M x S y wherein M is selected from P, Si, Ge, B, Al, or Sn, and x and y are integers that confer an electroneutrality with respect to S according to a kind of M, a cathode active material including a sulfur simple substance, and a conductive aid including a carbon material.
Device for fastening at least one aircraft cabin module (5, 10), said device comprising a component having limbs (2A, 2B) for detachably locking a plug that is fitted to the aircraft cabin module (5, 10), and multiple electrical contacts (4-i), wherein the component is configured as a U-shaped rail component, wherein the limbs (2A, 2B) of said component comprise locking points (3A, 3B) for detachably locking the plug that is fitted to the aircraft cabin module (5, 10) and the middle section that connects the two limbs (2A, 2B) of said component comprises the electrical contacts (4-i) for supplying power and for exchanging data with the aircraft cabin module (5, 10), wherein the locking points (3A, 3B) are formed by means of recesses that are configured in such a manner that spring-loaded locking projections that are fitted to the plug can latch into the recesses, and wherein the electrical contacts (4-i) are formed by means of contact grooves and it is possible for contact pins (8-i) of the plug that is fitted to the aircraft cabin module (5, 10) to be displaced in a longitudinal direction of the rail component element prior to locking the plug, wherein the contact grooves are configured in such a manner that they exert a retaining function for the plug.
A speaker comprising: a magnetic circuit device configured to generate a magnetic force; a voice coil configured to vibrate by the magnetic circuit device; and a damper configured to guide a movement of the voice coil, characterized in that: the damper includes a first portion and a second portion connected to the first portion, the first portion has a weave among a plain weave, a twill weave, and a satin weave, the first portion has a first corrugation, and the second portion has a different weave from the first portion among the plain weave, the twill weave, and the satin weave, the second portion has a second corrugation having a size that is different from a size of the first corrugation. a magnetic circuit device configured to generate a magnetic force; a voice coil configured to vibrate by the magnetic circuit device; and a damper configured to guide a movement of the voice coil, characterized in that: the damper includes a first portion and a second portion connected to the first portion, the first portion has a weave among a plain weave, a twill weave, and a satin weave, the first portion has a first corrugation, and the second portion has a different weave from the first portion among the plain weave, the twill weave, and the satin weave, the second portion has a second corrugation having a size that is different from a size of the first corrugation. the damper includes a first portion and a second portion connected to the first portion, the first portion has a weave among a plain weave, a twill weave, and a satin weave, the first portion has a first corrugation, and the second portion has a different weave from the first portion among the plain weave, the twill weave, and the satin weave, the second portion has a second corrugation having a size that is different from a size of the first corrugation.
A method for producing fluorine-containing alkane comprising reacting at least one fluorine-containing alkene of formula: R 5 CY 3 =CY 4 Y 5 wherein R 5 is C 1 -fluoroalkyl, and Y 3, Y 4 and Y 5 each independently are H or F, with hydrogen gas in the presence of a catalyst, wherein - two or more types of catalysts having different catalytic activities are used, and - the fluorine-containing alkene and hydrogen gas, which are starting materials, are sequentially contacted with the catalysts in the order of lower to higher catalytic activity. - two or more types of catalysts having different catalytic activities are used, and - the fluorine-containing alkene and hydrogen gas, which are starting materials, are sequentially contacted with the catalysts in the order of lower to higher catalytic activity.
An optical scanner comprising: a light source unit (10, 20) configured to emit a laser beam; a light deflector configured to deflect and scan the laser beam emitted from the light source unit (10, 20) towards an object existing in a detection field; and a light-receptive optical device configured to receive the laser beam deflected and scanned by the light deflector and then reflected or scattered by the object existing in the detection field, wherein a light-receptive field angle (θ r) of the light-receptive optical device is determined based on a scanning angular speed of the light deflector, a longest detection distance of the object in the detection field, and an angle of divergence (θ t) of the laser beam in the detection field, characterized by the light deflector having sinusoidal angular-speed scan characteristics, and wherein a conditional expression θ r ≥ θ t + 4 arcsin L c ω sin is satisfied, where θ r denotes the light-receptive field angle of the light-receptive optical device, ω sin denotes the scanning angular speed of the light deflector, L denotes the longest detection distance of the object in the detection field, θ t denotes the angle of divergence of the laser beam in the detection field, and c denotes speed of light. a light source unit (10, 20) configured to emit a laser beam; a light deflector configured to deflect and scan the laser beam emitted from the light source unit (10, 20) towards an object existing in a detection field; and a light-receptive optical device configured to receive the laser beam deflected and scanned by the light deflector and then reflected or scattered by the object existing in the detection field, wherein a light-receptive field angle (θ r) of the light-receptive optical device is determined based on a scanning angular speed of the light deflector, a longest detection distance of the object in the detection field, and an angle of divergence (θ t) of the laser beam in the detection field, characterized by the light deflector having sinusoidal angular-speed scan characteristics, and wherein a conditional expression θ r ≥ θ t + 4 arcsin L c ω sin is satisfied, where θ r denotes the light-receptive field angle of the light-receptive optical device, ω sin denotes the scanning angular speed of the light deflector, L denotes the longest detection distance of the object in the detection field, θ t denotes the angle of divergence of the laser beam in the detection field, and c denotes speed of light. θ r denotes the light-receptive field angle of the light-receptive optical device, ω sin denotes the scanning angular speed of the light deflector, L denotes the longest detection distance of the object in the detection field, θ t denotes the angle of divergence of the laser beam in the detection field, and c denotes speed of light.
A hoisting and handling apparatus (300, 400), comprising at least one beam element configured for being suspended and for supporting at least one mobile hoisting device, said at least one beam element having a main direction of development and comprising at least one bent metal sheet forming two profiles (201, 202), respectively facing each other along said main direction of development and contiguous with each other at the top of said beam element, said two profiles (201, 202) defining respective side faces (204, 205) of said beam element, said two profiles (201, 202) comprising respective support elements (206, 207) configured for supporting said mobile hoisting device and for allowing it to slide along said main direction of development, characterized in that said respective support elements (206, 207) are positioned externally to said respective side faces (204, 205), and in that said beam element further comprises at least one spacer element interposed between said two profiles (201, 202) and constrained thereto, said at least one spacer element being adapted to hold in position said two respective side faces (204, 205) in the structure of said beam element, for applying a load to said support elements (206, 207).
A method for treating sludge comprising: (a) dewatering the sludge to increase the dry solids in the sludge to 20%-30% by weight; (b) directing the dewatered sludge to a generally vertically oriented heat exchanger, the heat exchanger having a dewatered sludge inlet placed at a lower portion of the heat exchanger, a dewatered sludge outlet placed at an upper portion of the heat exchanger, a hydrolyzed sludge inlet placed at an upper portion of the heat exchanger, and a hydrolyzed sludge outlet placed at a lower portion of the heat exchanger; (c) directing the dewatered sludge into the dewatered sludge inlet and upwardly through the heat exchanger and out the dewatered sludge outlet and into a hydrolysis reactor; (d) hydrolyzing the sludge in the hydrolysis reactor; (e) passing the hydrolyzed sludge into the hydrolyzed sludge inlet of the heat exchanger; (f) providing sludge-to-sludge heat transfer by directing the hydrolyzed sludge downward through the heat exchanger as the dewatered sludge moves upward and through the heat exchanger; (g) directing the hydrolyzed sludge out the hydrolyzed sludge outlet of the heat exchanger to an anaerobic digester; and (h) anaerobically digesting the hydrolyzed sludge in the anaerobic digester. (a) dewatering the sludge to increase the dry solids in the sludge to 20%-30% by weight; (b) directing the dewatered sludge to a generally vertically oriented heat exchanger, the heat exchanger having a dewatered sludge inlet placed at a lower portion of the heat exchanger, a dewatered sludge outlet placed at an upper portion of the heat exchanger, a hydrolyzed sludge inlet placed at an upper portion of the heat exchanger, and a hydrolyzed sludge outlet placed at a lower portion of the heat exchanger; (c) directing the dewatered sludge into the dewatered sludge inlet and upwardly through the heat exchanger and out the dewatered sludge outlet and into a hydrolysis reactor; (d) hydrolyzing the sludge in the hydrolysis reactor; (e) passing the hydrolyzed sludge into the hydrolyzed sludge inlet of the heat exchanger; (f) providing sludge-to-sludge heat transfer by directing the hydrolyzed sludge downward through the heat exchanger as the dewatered sludge moves upward and through the heat exchanger; (g) directing the hydrolyzed sludge out the hydrolyzed sludge outlet of the heat exchanger to an anaerobic digester; and (h) anaerobically digesting the hydrolyzed sludge in the anaerobic digester.
A system for determining aspects related to a golf swing, comprising: a golf club, including: a golf club head; a shaft; and a grip; a monitoring device configured to be engaged with the golf club and configured to determine data related to at least one characteristic of a golf swing, comprising at least one sensor selected from: an accelerometer; a gyroscope; a magnetometer, and a GPS device, and a transmitter; a remote computer configured to receive data from the transmitter, wherein the transmitter is configured to transmit the data related to the at least one characteristic of a golf swing to the remote computer; a removable section removably engaged with the monitoring device; a top portion of the grip, wherein the top portion is engaged with the golf club shaft and wherein the removable section is removably engaged with the top portion; wherein the shaft is configured to engage and secure the top portion; wherein the removable section is configured with a connection means selected from the group consisting of: press fitting, snap fit mechanisms or mechanical fasteners, to enable engagement with the monitoring device; and wherein the top portion is configured with a locking mechanism selected from the group consisting of: press fitting, snap fit mechanisms or mechanical fasteners, to enable engagement with the removable section. a golf club, including: a golf club head; a shaft; and a grip; a golf club head; a shaft; and a grip; a monitoring device configured to be engaged with the golf club and configured to determine data related to at least one characteristic of a golf swing, comprising at least one sensor selected from: an accelerometer; a gyroscope; a magnetometer, and a GPS device, and a transmitter; a remote computer configured to receive data from the transmitter, wherein the transmitter is configured to transmit the data related to the at least one characteristic of a golf swing to the remote computer; a removable section removably engaged with the monitoring device; a top portion of the grip, wherein the top portion is engaged with the golf club shaft and wherein the removable section is removably engaged with the top portion; wherein the shaft is configured to engage and secure the top portion; wherein the removable section is configured with a connection means selected from the group consisting of: press fitting, snap fit mechanisms or mechanical fasteners, to enable engagement with the monitoring device; and wherein the top portion is configured with a locking mechanism selected from the group consisting of: press fitting, snap fit mechanisms or mechanical fasteners, to enable engagement with the removable section.
A method for joining fibre-reinforced plastics-material components, having the steps: - arranging the components (21, 22) to be joined between a sonotrode and a die, - by a material-formed connection, connecting the components to be joined, by exposing the components (11, 12) to temperature, - shaping the components (21, 22) to be joined in a contact region in which the components to be joined are pressed onto the die with the sonotrode, wherein the form of the operative surface of the sonotrode is imaged in one of the component surfaces, characterised in that the components (21, 22) to be joined are shaped while retaining their original thickness. - arranging the components (21, 22) to be joined between a sonotrode and a die, - by a material-formed connection, connecting the components to be joined, by exposing the components (11, 12) to temperature, - shaping the components (21, 22) to be joined in a contact region in which the components to be joined are pressed onto the die with the sonotrode,
A circuit for a passive radio-identification tag operating in a UHF band, configured for radio communication with a reader which sends a periodic read signal, wherein a period of the read signal comprises an energy recovery phase and a communication phase, the circuit comprising: - a control device configured to accumulate an energy reserve from the radio wave during the energy recovery phase and to communicate with the reader during the communication phase, - an interface to connect an external analogue sensor, the interface comprising: an electrical connection configured to connect and supply the external analogue sensor with electricity and to acquire the analogue measurement from the sensor, an amplifier configured to amplify the signal of the analogue measurement from the sensor, and an analogue-digital converter configured to digitise the amplified analogue measurement from the sensor, wherein the energy recovery phase comprises an acquisition phase during which the interface supplies the external analogue sensor, acquires, amplifies and digitises the measurement from the sensor, characterised in that the control device is also configured to: supply the interface to acquire the amplified and digitised measurement during the acquisition phase, and transfer the amplified and digitised measurement to the reader during the communication phase of the same period. - a control device configured to accumulate an energy reserve from the radio wave during the energy recovery phase and to communicate with the reader during the communication phase, - an interface to connect an external analogue sensor, the interface comprising: an electrical connection configured to connect and supply the external analogue sensor with electricity and to acquire the analogue measurement from the sensor, an amplifier configured to amplify the signal of the analogue measurement from the sensor, and an analogue-digital converter configured to digitise the amplified analogue measurement from the sensor, wherein the energy recovery phase comprises an acquisition phase during which the interface supplies the external analogue sensor, acquires, amplifies and digitises the measurement from the sensor, an electrical connection configured to connect and supply the external analogue sensor with electricity and to acquire the analogue measurement from the sensor, an amplifier configured to amplify the signal of the analogue measurement from the sensor, and an analogue-digital converter configured to digitise the amplified analogue measurement from the sensor, wherein the energy recovery phase comprises an acquisition phase during which the interface supplies the external analogue sensor, acquires, amplifies and digitises the measurement from the sensor, supply the interface to acquire the amplified and digitised measurement during the acquisition phase, and transfer the amplified and digitised measurement to the reader during the communication phase of the same period.