mhurhangee/ep-ind-claims huggingface dataset:
A method for measuring a force experienced by a robotic grasping device, the method comprising: applying an actuator force at a proximal end of at least one of an elongated first and second robot finger (20, 30) to reduce a space between opposing first and second gripping surfaces (21, 31) disposed adjacent to a respective distal end of the first and second robot fingers (20, 30); sensing a first operative force applied to said first robot finger using a first force sensor disposed on a finger base of the first robot finger and fully covered by a finger gripper of the first robot finger so as to be protected thereby from damage; wherein an air gap is provided between the finger gripper and the finger base such that a portion of the finger base and a portion of the finger gripper can not come in contact with one other when the finger base flexes due to the first operative force. applying an actuator force at a proximal end of at least one of an elongated first and second robot finger (20, 30) to reduce a space between opposing first and second gripping surfaces (21, 31) disposed adjacent to a respective distal end of the first and second robot fingers (20, 30); sensing a first operative force applied to said first robot finger using a first force sensor disposed on a finger base of the first robot finger and fully covered by a finger gripper of the first robot finger so as to be protected thereby from damage; wherein an air gap is provided between the finger gripper and the finger base such that a portion of the finger base and a portion of the finger gripper can not come in contact with one other when the finger base flexes due to the first operative force.
Gas fixing tool (10, 110) including: - at least one combustion chamber (28, 30), - a trigger (23, 123) configured to be moved manually from a first or rest position to a second or firing position, - a device for injecting fuel into said at least one chamber, - a member (60, 160, 260) for actuating said device configured to be moved from a first or rest position to a second position for actuating said device and injecting fuel into said at least one chamber, and - a bearing member intended to be brought to bear on a support material, said bearing member being configured to be moved by bearing on said support material from a first or rest position to a second position, said bearing member being further configured to cooperate with said actuating member so that the movement of said bearing member from its first position to its second position causes said actuating member to move from its first position to its second position, characterized in that it further comprises a safety member (70, 170, 270, 270') configured to cooperate on the one hand with said actuating member and on the other hand with said trigger, so that said trigger is locked in its first position when said actuating member is in its first position. - at least one combustion chamber (28, 30), - a trigger (23, 123) configured to be moved manually from a first or rest position to a second or firing position, - a device for injecting fuel into said at least one chamber, - a member (60, 160, 260) for actuating said device configured to be moved from a first or rest position to a second position for actuating said device and injecting fuel into said at least one chamber, and - a bearing member intended to be brought to bear on a support material, said bearing member being configured to be moved by bearing on said support material from a first or rest position to a second position, said bearing member being further configured to cooperate with said actuating member so that the movement of said bearing member from its first position to its second position causes said actuating member to move from its first position to its second position,
A method for reducing the pressure pulsation level in a multi-compressor plant, the multi-compressor plant comprising a plurality of reciprocating compressors connected in parallel to a gas piping system, each reciprocating compressor being driven by a respective motor, the method comprising: assessing a number of compressors running in parallel; determining the worst pressure pulsation sum with a single compressor running, by the determination of the worst operating conditions; determining the worst pressure pulsation sum with a plurality of compressors running in parallel, by the determination of the worst operating conditions imposing 0° phase among compressors; determining the best pressure pulsation sum imposing a different phase among compressors starting from a phase that is equal to 360°/N c, wherein N c is the maximum number of compressors in operation; determining the best phase shift among compressors when the pressure pulsations peaks generated by each compressor is distributed as to avoid superimposition under the condition that, for each capacity control case, the resulting main frequency of combination is the highest possible; starting a first motor of a first reciprocating compressor; and starting in succession each other motors in order to synchronize all motors between each other with the determined phase shift. assessing a number of compressors running in parallel; determining the worst pressure pulsation sum with a single compressor running, by the determination of the worst operating conditions; determining the worst pressure pulsation sum with a plurality of compressors running in parallel, by the determination of the worst operating conditions imposing 0° phase among compressors; determining the best pressure pulsation sum imposing a different phase among compressors starting from a phase that is equal to 360°/N c, wherein N c is the maximum number of compressors in operation; determining the best phase shift among compressors when the pressure pulsations peaks generated by each compressor is distributed as to avoid superimposition under the condition that, for each capacity control case, the resulting main frequency of combination is the highest possible; starting a first motor of a first reciprocating compressor; and starting in succession each other motors in order to synchronize all motors between each other with the determined phase shift.
Saccharomyces cerevisiae yeast strain deposited with the CNCM on 17 October 2007 under number 1-3856, for use in the prevention and/or treatment of an oropharyngeal candidiasis in a subject.
An adsorption vessel comprising: a packed bed region of adsorbent particles contiguously arranged, comprising a plurality of perforated adsorbent particles, the packed bed region containing the adsorbent particles as a bulk material; wherein each perforated adsorbent particle comprises an adsorbent material capable of preferentially adsorbing at least one more strongly adsorbable gaseous component in a mixture comprising at least two gaseous components comprising the at least one more strongly adsorbable component and at least one less strongly adsorbable component, wherein the adsorbent material is a material selected from the group consisting of activated alumina, activated carbon, zeolites, mesopore-structured materials, carbon molecular sieve, metal-organic framework materials, silica gel, and combinations thereof; and wherein each perforated adsorbent particle defines a respective plurality of channels, the respective plurality of channels extending through each perforated adsorbent particle in a lengthwise direction from a first end to a second end; characterized in that the respective plurality of channels numbers at least 10; and each channel of the plurality of channels has an equivalent diameter, d, ranging from 0.05 mm to 1.5 mm, where d = 2 A π, where A is the cross-sectional area normal to the lengthwise direction for each respective channel. a packed bed region of adsorbent particles contiguously arranged, comprising a plurality of perforated adsorbent particles, the packed bed region containing the adsorbent particles as a bulk material; wherein each perforated adsorbent particle comprises an adsorbent material capable of preferentially adsorbing at least one more strongly adsorbable gaseous component in a mixture comprising at least two gaseous components comprising the at least one more strongly adsorbable component and at least one less strongly adsorbable component, wherein the adsorbent material is a material selected from the group consisting of activated alumina, activated carbon, zeolites, mesopore-structured materials, carbon molecular sieve, metal-organic framework materials, silica gel, and combinations thereof; and wherein each perforated adsorbent particle defines a respective plurality of channels, the respective plurality of channels extending through each perforated adsorbent particle in a lengthwise direction from a first end to a second end; characterized in that the respective plurality of channels numbers at least 10; and each channel of the plurality of channels has an equivalent diameter, d, ranging from 0.05 mm to 1.5 mm, where d = 2 A π, where A is the cross-sectional area normal to the lengthwise direction for each respective channel.
A motorcycle tire for running on rough terrain comprising a tread portion, wherein the tread portion includes a base surface and a plurality of blocks protruding outward in a tire radial direction from the base surface, the blocks include a crown block arranged on a tire equator side and a shoulder block arranged on a tread edge (Te) side, a height hs of the shoulder block from the base surface is larger than a height hc of the crown block from the base surface, the shoulder block is provided on the base surface side with a base portion that has a locally increased cross-section taken along the base surface, the blocks include a middle block arranged between the crown block and the shoulder block, and the tread portion includes a shoulder tie bar formed by the raised base surface and connecting the shoulder block and the middle block, characterized in that a height of the shoulder tie bar is smaller than a height h1 of the base portion. the tread portion includes a base surface and a plurality of blocks protruding outward in a tire radial direction from the base surface, the blocks include a crown block arranged on a tire equator side and a shoulder block arranged on a tread edge (Te) side, a height hs of the shoulder block from the base surface is larger than a height hc of the crown block from the base surface, the shoulder block is provided on the base surface side with a base portion that has a locally increased cross-section taken along the base surface, the blocks include a middle block arranged between the crown block and the shoulder block, and the tread portion includes a shoulder tie bar formed by the raised base surface and connecting the shoulder block and the middle block, characterized in that a height of the shoulder tie bar is smaller than a height h1 of the base portion.
An apparatus comprising: an impressions monitor to: receive a first network communication from a client device, the first network communication including a first characteristic corresponding to a collector media object presented at the client device, and including second characteristics (210b-d) respectively corresponding to a plurality of second media objects (104b-d) concurrently presented with the collector media object at the client device, the first characteristic and the second characteristics (210b-d) collected at the client device for transmission in the first network communication based on an instruction in the collector media object; and log impressions corresponding to the collector media object and the second media objects (104b-d) based on the first and second characteristics (210a-d); a demographics collector to receive a second network communication from a database proprietor (204, 204a, 204b), the second network communication including demographic information; and an attributor to associate the demographic information with the logged impressions. an impressions monitor to: receive a first network communication from a client device, the first network communication including a first characteristic corresponding to a collector media object presented at the client device, and including second characteristics (210b-d) respectively corresponding to a plurality of second media objects (104b-d) concurrently presented with the collector media object at the client device, the first characteristic and the second characteristics (210b-d) collected at the client device for transmission in the first network communication based on an instruction in the collector media object; and log impressions corresponding to the collector media object and the second media objects (104b-d) based on the first and second characteristics (210a-d); receive a first network communication from a client device, the first network communication including a first characteristic corresponding to a collector media object presented at the client device, and including second characteristics (210b-d) respectively corresponding to a plurality of second media objects (104b-d) concurrently presented with the collector media object at the client device, the first characteristic and the second characteristics (210b-d) collected at the client device for transmission in the first network communication based on an instruction in the collector media object; and log impressions corresponding to the collector media object and the second media objects (104b-d) based on the first and second characteristics (210a-d); a demographics collector to receive a second network communication from a database proprietor (204, 204a, 204b), the second network communication including demographic information; and an attributor to associate the demographic information with the logged impressions.
A powder composition suitable for use in laser sintering for printing a three-dimensional object, the powder composition comprising: a first fraction comprising a polyaryletherketone (PAEK) powder having a plurality of particles, the plurality of particles having a mean diameter between 10 μm to 20 μm; a second fraction comprising a PAEK powder having a plurality of particles, the plurality of particles having a mean diameter greater than 30 μm; a third fraction comprising a plurality of carbon fibers. a first fraction comprising a polyaryletherketone (PAEK) powder having a plurality of particles, the plurality of particles having a mean diameter between 10 μm to 20 μm; a second fraction comprising a PAEK powder having a plurality of particles, the plurality of particles having a mean diameter greater than 30 μm; a third fraction comprising a plurality of carbon fibers.
A method to manufacture a reflector for a radar antenna having a predetermined far field radiation pattern for a preset frequency range, the method comprising the steps of: a. calculating a shape of a reflective surface based on geometrical optics with reference to the predetermined far field radiation pattern for the preset frequency range; b. determining initial radiation current on the reflective surface for the calculated shape based on physical optics; c. calculating the radiation pattern of the calculated shape of the reflective surface from the initial radiation current; d. comparing the radiation pattern with the predetermined far field radiation pattern to obtain a constrained radiation pattern; e. calculating a constrained radiation current on the reflective surface corresponding to the constrained radiation pattern; f. determining a phase difference between the initial radiation current and the constrained radiation current for each point of the reflective surface; g. varying the level of each point of the reflective surface to compensate the phase difference so as to obtain a matrix defining an adjusted shape of the reflective surface; and h. applying the matrix to machine the reflective surface. a. calculating a shape of a reflective surface based on geometrical optics with reference to the predetermined far field radiation pattern for the preset frequency range; b. determining initial radiation current on the reflective surface for the calculated shape based on physical optics; c. calculating the radiation pattern of the calculated shape of the reflective surface from the initial radiation current; d. comparing the radiation pattern with the predetermined far field radiation pattern to obtain a constrained radiation pattern; e. calculating a constrained radiation current on the reflective surface corresponding to the constrained radiation pattern; f. determining a phase difference between the initial radiation current and the constrained radiation current for each point of the reflective surface; g. varying the level of each point of the reflective surface to compensate the phase difference so as to obtain a matrix defining an adjusted shape of the reflective surface; and h. applying the matrix to machine the reflective surface.
A method including: receiving, by a computing device, a new message, wherein the new message includes a message phase number and a message sequence number, and wherein the new message is part of a message sequence, wherein a said message sequence comprises at least one data message, each data message has a different sequence number and the same phase number, and the message sequence ends with a stop message also having the same phase number; determining, by the computing device, an expected phase number for the new message, the expected phase number being determined from a phase number of a most recently received previous message; determining, by the computing device, an expected sequence number for the new message, the expected sequence number being determined from a sequence number of the most recently received previous message; comparing, by the computing device, the message phase number to the expected phase number; comparing, by the computing device, the message sequence number to the expected sequence number; and reporting, by the computing device, a lost message when the message sequence number and the expected sequence number match and the message phase number and the expected phase number do not match. receiving, by a computing device, a new message, wherein the new message includes a message phase number and a message sequence number, and wherein the new message is part of a message sequence, wherein a said message sequence comprises at least one data message, each data message has a different sequence number and the same phase number, and the message sequence ends with a stop message also having the same phase number; determining, by the computing device, an expected phase number for the new message, the expected phase number being determined from a phase number of a most recently received previous message; determining, by the computing device, an expected sequence number for the new message, the expected sequence number being determined from a sequence number of the most recently received previous message; comparing, by the computing device, the message phase number to the expected phase number; comparing, by the computing device, the message sequence number to the expected sequence number; and reporting, by the computing device, a lost message when the message sequence number and the expected sequence number match and the message phase number and the expected phase number do not match.
A method of wireless communication for a base station (102, 402), the method comprising: communicating with a first user equipment, UE, (104, 404, 406) on a plurality of channels; receiving, from the first UE, a set of channel quality indicators, CQIs, (422, 442) associated with a set of channels that is a subset of the plurality of channels, the set of channels being based on channel qualities associated with the plurality of channels; detecting a collision between a first set of control channel elements, CCEs, associated with the first UE and a second set of CCEs associated with a second UE, determining, based on the received set of CQIs, the first set of CCEs for a UE-specific search space specific to the first UE for receiving a physical downlink control channel, PDCCH, in at least one symbol allocated for control information; and sending, based on the determined first set of CCEs, downlink control information on the PDCCH in the UE-specific search space specific to the first UE and sending downlink control information associated with the second UE on the PDCCH in a common search space based on the detected collision. communicating with a first user equipment, UE, (104, 404, 406) on a plurality of channels; receiving, from the first UE, a set of channel quality indicators, CQIs, (422, 442) associated with a set of channels that is a subset of the plurality of channels, the set of channels being based on channel qualities associated with the plurality of channels; detecting a collision between a first set of control channel elements, CCEs, associated with the first UE and a second set of CCEs associated with a second UE, determining, based on the received set of CQIs, the first set of CCEs for a UE-specific search space specific to the first UE for receiving a physical downlink control channel, PDCCH, in at least one symbol allocated for control information; and sending, based on the determined first set of CCEs, downlink control information on the PDCCH in the UE-specific search space specific to the first UE and sending downlink control information associated with the second UE on the PDCCH in a common search space based on the detected collision.