mhurhangee/patent-ind-claim-en huggingface dataset:
A brushless motor comprising: a stator including a stator core wound with windings ; a rotor disposed rotatably on a rotary shaft ; a circuit board mounted with a drive control circuit that energizes the windings ; a board holder disposed on an end face of the stator for holding the circuit board ; a motor housing having a notch at an opening; and a housing cover , wherein the motor housing accommodates the stator , the rotor and the board holder to which the circuit board is mounted, and the opening of the motor housing is sealed with the housing cover , wherein the board holder includes a board mount section to which the circuit board is mounted, and a lead-wire holder for holding a lead-wire extending from the circuit board , wherein the lead-wire holder is disposed at the notch of the motor housing , and the lead-wire extends from the circuit board mounted to the board mount section to outside the motor housing via the lead-wire holder , characterized in that the stator core includes a plurality of slits in an outer wall thereof along a rotary shaft direction, and the board holder includes a plurality of projections projecting toward the stator core , and the projections are inserted into the slits . a stator including a stator core wound with windings ; a rotor disposed rotatably on a rotary shaft ; a circuit board mounted with a drive control circuit that energizes the windings ; a board holder disposed on an end face of the stator for holding the circuit board ; a motor housing having a notch at an opening; and a housing cover , wherein the motor housing accommodates the stator , the rotor and the board holder to which the circuit board is mounted, and the opening of the motor housing is sealed with the housing cover , wherein the board holder includes a board mount section to which the circuit board is mounted, and a lead-wire holder for holding a lead-wire extending from the circuit board , wherein the lead-wire holder is disposed at the notch of the motor housing , and the lead-wire extends from the circuit board mounted to the board mount section to outside the motor housing via the lead-wire holder , characterized in that the stator core includes a plurality of slits in an outer wall thereof along a rotary shaft direction, and the board holder includes a plurality of projections projecting toward the stator core , and the projections are inserted into the slits .
An end effector configured to be mounted to a robot arm , comprising: an end effector base portion configured to be connected to the robot arm ; and an elastic component holding unit provided to the end effector base portion and configured to hold an elastic component, wherein the elastic component holding unit has a plurality of elastic component gripping members which are configured to releasably grip the elastic component; and a biasing unit configured to repulsively bias each distal end portion of the plurality of elastic component gripping members from a releasing position for releasing the elastic component toward a gripping position for gripping the elastic component, characterized in that the end effector further comprises: an object holding unit provided to the end effector base portion and configured to hold an object to be handled; and a holding mechanism provided to the end effector base portion so as to releasably hold the elastic component holding unit . an end effector base portion configured to be connected to the robot arm ; and an elastic component holding unit provided to the end effector base portion and configured to hold an elastic component, wherein the elastic component holding unit has a plurality of elastic component gripping members which are configured to releasably grip the elastic component; and a biasing unit configured to repulsively bias each distal end portion of the plurality of elastic component gripping members from a releasing position for releasing the elastic component toward a gripping position for gripping the elastic component, characterized in that the end effector further comprises: an object holding unit provided to the end effector base portion and configured to hold an object to be handled; and a holding mechanism provided to the end effector base portion so as to releasably hold the elastic component holding unit . an object holding unit provided to the end effector base portion and configured to hold an object to be handled; and a holding mechanism provided to the end effector base portion so as to releasably hold the elastic component holding unit .
An arpeggiator that includes automatic performance part having an arpeggio pattern in which sound production timings of arpeggio constituent sounds are stored and for automatically playing an arpeggio by performing sound production based on a note number input by a performer at a sound production timing in the arpeggio pattern, the arpeggiator comprising: a sound range designation part for designating an output sound range of a performance part; and characterised in further comprising a sound range correction part for, in a case where the note number input by the performer is not within the sound range designated by the sound range designation part, correcting the note number to a note number within the sound range, wherein the automatic performance part is configured to automatically play the arpeggio by performing sound production based on the note number subjected to sound range correction by the sound range correction part at the sound production timing stored in the arpeggio pattern. a sound range designation part for designating an output sound range of a performance part; and characterised in further comprising a sound range correction part for, in a case where the note number input by the performer is not within the sound range designated by the sound range designation part, correcting the note number to a note number within the sound range, wherein the automatic performance part is configured to automatically play the arpeggio by performing sound production based on the note number subjected to sound range correction by the sound range correction part at the sound production timing stored in the arpeggio pattern.
Hydraulic unit with a tank positioned on an end with respect to its principal axis and functional components mounted on this, consisting of at least a hydraulic pump and a connecting member together with an electric motor for driving the hydraulic pump , characterised in that the connecting member is composed of at least one structural unit and at least a further structural unit , that the one structural unit is at least partially housed in the further structural member, and that the one structural unit of the connecting member comprises as support device a fastening component for mounting both the electric motor and the hydraulic pump , which are located on opposite sides of the connecting member .
A network connector comprising: an insulative seat ; multiple conductive terminals , spacedly arranged and fixed on the insulative seat ; a control circuit module , comprising a circuit board and at least one electronic element , the circuit board comprising multiple first contacts and multiple second contacts electrically connected with the first contacts , each first contact disposed on an end of the circuit board , each second contact arranged spacedly corresponding to each first contact , the insulative seat fixed on the circuit board , and the electronic element fixed on the circuit board and comprising multiple conductive pins ; and a ground sheet , electrically connected to the circuit board , comprising a positioning portion and multiple arm portions connected with the positioning portion , the positioning portion disposed between each first contact and each second contact , and each arm portion is extended toward each first contact ; each conductive terminal electrically connected with each first contact ; each conductive pin electrically connected with each second contact ; and the network connector further comprises a metal casing covering the insulative seat , each conductive terminal , the control circuit module and the ground sheet , and contacting the ground sheet , characterized in that each arm portion is extended along two sides of the circuit board and passes through a position of each first contact . an insulative seat ; multiple conductive terminals , spacedly arranged and fixed on the insulative seat ; a control circuit module , comprising a circuit board and at least one electronic element , the circuit board comprising multiple first contacts and multiple second contacts electrically connected with the first contacts , each first contact disposed on an end of the circuit board , each second contact arranged spacedly corresponding to each first contact , the insulative seat fixed on the circuit board , and the electronic element fixed on the circuit board and comprising multiple conductive pins ; and a ground sheet , electrically connected to the circuit board , comprising a positioning portion and multiple arm portions connected with the positioning portion , the positioning portion disposed between each first contact and each second contact , and each arm portion is extended toward each first contact ; each conductive terminal electrically connected with each first contact ; each conductive pin electrically connected with each second contact ; and the network connector further comprises a metal casing covering the insulative seat , each conductive terminal , the control circuit module and the ground sheet , and contacting the ground sheet ,
A lubricant composition comprising: a) a first polysulfide extreme pressure agent comprising a mixture of C2-C6 polysulfides including a majority of trisulfides, wherein the first polysulfide has a structure of the formula R 1 -S x -R 2 , wherein R 1 and R 2 , are independently, a C2 to C6 hydrocarbyl group and x is an integer of at least 2 with a majority of x being 3; b) a second polysulfide extreme pressure agent comprising a mixture of C10-C14 polysulfides including a majority of trisulfides, wherein the second polysulfide has a structure of the formula R 3 -S y -R 4 , wherein R 3 and R 4 , are independently, a C10 to C14 hydrocarbyl group and y is an integer of at least 2 with a majority of y being 3; and wherein a weight ratio of sulfur contributed by the first polysulfide and the second polysulfide is 0.45 to 0.75. a) a first polysulfide extreme pressure agent comprising a mixture of C2-C6 polysulfides including a majority of trisulfides, wherein the first polysulfide has a structure of the formula R 1 -S x -R 2 , wherein R 1 and R 2 , are independently, a C2 to C6 hydrocarbyl group and x is an integer of at least 2 with a majority of x being 3; b) a second polysulfide extreme pressure agent comprising a mixture of C10-C14 polysulfides including a majority of trisulfides, wherein the second polysulfide has a structure of the formula R 3 -S y -R 4 , wherein R 3 and R 4 , are independently, a C10 to C14 hydrocarbyl group and y is an integer of at least 2 with a majority of y being 3; and wherein a weight ratio of sulfur contributed by the first polysulfide and the second polysulfide is 0.45 to 0.75.
A method, performed by a user equipment, for redirecting the user equipment, UE, from a first network to a second network, comprising: sending a message to a wireless access point of the first network, wherein the first network is a neutral host, NH, network, and wherein the message includes a public land mobile network identifier, PLMN ID, of the second network, and wherein the second network is one of one or more mobile network operator, MNO, networks available in a region, wherein the message comprises a UE capability information message, and wherein the UE capability information message includes band information of the second network, wherein the band information at least comprises the bands on which the MNO networks operate in this region; and receiving a redirection message from the wireless access point of the first network that redirects the UE from the first network to the second network, wherein the redirection message is based on the PLMN ID and/or band information included in the message. sending a message to a wireless access point of the first network, wherein the first network is a neutral host, NH, network, and wherein the message includes a public land mobile network identifier, PLMN ID, of the second network, and wherein the second network is one of one or more mobile network operator, MNO, networks available in a region, wherein the message comprises a UE capability information message, and wherein the UE capability information message includes band information of the second network, wherein the band information at least comprises the bands on which the MNO networks operate in this region; and receiving a redirection message from the wireless access point of the first network that redirects the UE from the first network to the second network, wherein the redirection message is based on the PLMN ID and/or band information included in the message.
A method, comprising: performing, by one or more computing devices : obtaining a first indication of a destination of a vehicle; generating a list of finer-granularity destinations located within a vicinity of the destination based at least in part on analysis of a history of stopping points in the vicinity of the destination, wherein the finer-granularity destinations comprise specific locations within the vicinity of the destination corresponding to respective stopping points; receiving user input indicating a selected finer-granularity destination among the finer-granularity destinations; identifying , based at least in part on (a) the selected finer-granularity destination and (b) information indicating an external environment of the vehicle, one or more movements to be implemented to proceed to a stopping point within the vicinity of the selected finer-granularity destination; and transmitting a first directive to one or more motion control subsystems to initiate at least a first movement of the one or more movements. obtaining a first indication of a destination of a vehicle; generating a list of finer-granularity destinations located within a vicinity of the destination based at least in part on analysis of a history of stopping points in the vicinity of the destination, wherein the finer-granularity destinations comprise specific locations within the vicinity of the destination corresponding to respective stopping points; receiving user input indicating a selected finer-granularity destination among the finer-granularity destinations; identifying , based at least in part on (a) the selected finer-granularity destination and (b) information indicating an external environment of the vehicle, one or more movements to be implemented to proceed to a stopping point within the vicinity of the selected finer-granularity destination; and transmitting a first directive to one or more motion control subsystems to initiate at least a first movement of the one or more movements.
An illumination module, comprising: an array of vertical cavity surface emitting lasers (VCSELs) emitting light; a driver configured to provide current to the array of VCSELs; and an optical element configured to receive the light emitted by the array of VCSELs and output a light pattern from the illumination module, wherein the array of VCSELs is segmented into a first segment of VCSELs configured to emit light and a second segment of VCSELs configured to detect light emitted by the first segment of VCSELs, wherein at least one VCSEL in the first segment of VCSELs comprises a multi-junction VCSEL, wherein the VCSELs in the first segment of VCSELs share a first common cathode and a first common anode; and wherein the VCSELs in the second segment of VCSELs share the first common cathode with the VCSELs in the first segment of VCSELs and further share a second common anode separate from the first common anode. an array of vertical cavity surface emitting lasers (VCSELs) emitting light; a driver configured to provide current to the array of VCSELs; and an optical element configured to receive the light emitted by the array of VCSELs and output a light pattern from the illumination module, wherein the array of VCSELs is segmented into a first segment of VCSELs configured to emit light and a second segment of VCSELs configured to detect light emitted by the first segment of VCSELs, wherein at least one VCSEL in the first segment of VCSELs comprises a multi-junction VCSEL, wherein the VCSELs in the first segment of VCSELs share a first common cathode and a first common anode; and wherein the VCSELs in the second segment of VCSELs share the first common cathode with the VCSELs in the first segment of VCSELs and further share a second common anode separate from the first common anode.
An antibody or antibody fragment capable of binding to a lung-specific X protein, wherein the antibody or antibody fragment comprises heavy chain CDRs with amino acid sequences of SEQ ID NO: 1, SEQ ID NO: 2 and SEQ ID NO: 3 and light chain CDRs with amino acid sequences of SEQ ID NO: 4, SEQ ID NO: 5 and SEQ ID NO: 6; or the antibody or antibody fragment comprises heavy chain CDRs with amino acid sequences of SEQ ID NO: 1, SEQ ID NO: 7 and SEQ ID NO: 3 and light chain CDRs with amino acid sequences of SEQ ID NO: 8, SEQ ID NO: 5 and SEQ ID NO: 6.
Immersion device for immersing wafers (P), comprising retaining bars for retaining the wafers, at least one variable retaining bar and two end plates bearing said retaining bars for retaining the wafers, each end plate comprising at least one groove for receiving said at least one variable retaining bar that is configured to be positioned at a height that can be adjusted by sliding in the grooves in the two plates, characterized in that said at least one variable retaining bar comprises in each case two opposing rows of teeth for separating the wafers.
A ceramic die comprising: a ceramic die body defining a mold surface configured to shape a part during a superplastic forming process; and a plurality of fibers disposed within the ceramic die body , wherein the plurality of fibers are located such that a first portion of the ceramic die body proximate the mold surface has a greater percentage of fibers than a second portion of the ceramic die body spaced apart from the mold surface , such that the regions of the ceramic die body that are more likely to fail are configured to include said plurality of fibers , while other regions of the ceramic die body that are less likely to fail are free of the fibers or include a substantially lower percentage of the fibers . a ceramic die body defining a mold surface configured to shape a part during a superplastic forming process; and a plurality of fibers disposed within the ceramic die body , wherein the plurality of fibers are located such that a first portion of the ceramic die body proximate the mold surface has a greater percentage of fibers than a second portion of the ceramic die body spaced apart from the mold surface , such that the regions of the ceramic die body that are more likely to fail are configured to include said plurality of fibers , while other regions of the ceramic die body that are less likely to fail are free of the fibers or include a substantially lower percentage of the fibers .
An acrylic alloy composition for use in material extrusion additive manufacturing, said acrylic composition comprising: A. a polymer matrix blend comprising: 1) one or more acrylic polymers having a weight average molecular weight of from 50,000 to 300,000, and preferably from 75,000 to 150,000 g/mol, as measured according to the description, wherein said acrylic polymer comprises at least 60 weight percent of methyl methacrylate monomer units 2) 9 to 40 weight percent of one or more low viscosity polymers that are compatible, semi-miscible, or miscible with the acrylic polymer, said low viscosity polymers having a melt flow rate of greater than 10 g/10 minutes and preferably greater than 25 g/10 minutes, as measured by ASTM D1238 at 230°C/10.4kg of force, 3) optionally 0 to 60 weight percent of impact modifiers, preferably 9 to 40 weight percent, wherein said acrylic composition has a viscosity at a shear of 1 sec -1 of less than 100,000 Pa-sec, preferably less than 10,000, and more preferably from 50 to 1,000 Pa-sec at a temperature of 230°C, and a viscosity of 20 to 2,000 Pa-s, preferably from 25 to 1,000 Pa-s, and more preferably 30 to 500 Pa-s at a shear rate of 100 sec -1 at a temperature of 230°C, as measured by a rotational viscometer according to ASTM C965. A. a polymer matrix blend comprising: 1) one or more acrylic polymers having a weight average molecular weight of from 50,000 to 300,000, and preferably from 75,000 to 150,000 g/mol, as measured according to the description, wherein said acrylic polymer comprises at least 60 weight percent of methyl methacrylate monomer units 2) 9 to 40 weight percent of one or more low viscosity polymers that are compatible, semi-miscible, or miscible with the acrylic polymer, said low viscosity polymers having a melt flow rate of greater than 10 g/10 minutes and preferably greater than 25 g/10 minutes, as measured by ASTM D1238 at 230°C/10.4kg of force, 3) optionally 0 to 60 weight percent of impact modifiers, preferably 9 to 40 weight percent, wherein said acrylic composition has a viscosity at a shear of 1 sec -1 of less than 100,000 Pa-sec, preferably less than 10,000, and more preferably from 50 to 1,000 Pa-sec at a temperature of 230°C, and a viscosity of 20 to 2,000 Pa-s, preferably from 25 to 1,000 Pa-s, and more preferably 30 to 500 Pa-s at a shear rate of 100 sec -1 at a temperature of 230°C, as measured by a rotational viscometer according to ASTM C965. 1) one or more acrylic polymers having a weight average molecular weight of from 50,000 to 300,000, and preferably from 75,000 to 150,000 g/mol, as measured according to the description, wherein said acrylic polymer comprises at least 60 weight percent of methyl methacrylate monomer units 2) 9 to 40 weight percent of one or more low viscosity polymers that are compatible, semi-miscible, or miscible with the acrylic polymer, said low viscosity polymers having a melt flow rate of greater than 10 g/10 minutes and preferably greater than 25 g/10 minutes, as measured by ASTM D1238 at 230°C/10.4kg of force, 3) optionally 0 to 60 weight percent of impact modifiers, preferably 9 to 40 weight percent,