mhurhangee/patent-ind-claim-en huggingface dataset:
A robot cleaner comprising: a body including a suction motor; and a nozzle coupled to the body and including a suction port , characterized by : a movable unit coupled to the nozzle in front of the suction port and being movable between a first position where the movable unit overlaps with the nozzle and a second position where the movable unit protrudes forward from the nozzle , and that the nozzle further includes a bumper to absorb an impact when colliding with an obstacle, wherein the movable unit is connected with the bumper and receives moving force of the bumper to rotate. a body including a suction motor; and a nozzle coupled to the body and including a suction port , characterized by : a movable unit coupled to the nozzle in front of the suction port and being movable between a first position where the movable unit overlaps with the nozzle and a second position where the movable unit protrudes forward from the nozzle , and that the nozzle further includes a bumper to absorb an impact when colliding with an obstacle, wherein the movable unit is connected with the bumper and receives moving force of the bumper to rotate. a movable unit coupled to the nozzle in front of the suction port and being movable between a first position where the movable unit overlaps with the nozzle and a second position where the movable unit protrudes forward from the nozzle , and that the nozzle further includes a bumper to absorb an impact when colliding with an obstacle, wherein the movable unit is connected with the bumper and receives moving force of the bumper to rotate.
An injection molding machine , comprising: a crosshead which is driven by a linear motion mechanism ; a bush which is disposed in a guide hole provided in a guide portion of the crosshead ; a guide bar which is inserted into a bearing hole of the bush and guides a linear motion of the crosshead ; seal blocks which have an insertion hole into which the guide bar is inserted and are disposed on both end surfaces of the guide portion ; a seal member which is disposed in a seal groove formed on an inner peripheral surface of the insertion hole of the seal blocks and seals a gap between the inner peripheral surface of the insertion hole of the seal block and an outer peripheral surface of the guide bar ; a supply path through which a lubricant is supplied to a bearing gap which is a gap between the bush and the guide bar ; a collection groove which communicates with the bearing gap ; and a collection path which communicates with the collection groove . a crosshead which is driven by a linear motion mechanism ; a bush which is disposed in a guide hole provided in a guide portion of the crosshead ; a guide bar which is inserted into a bearing hole of the bush and guides a linear motion of the crosshead ; seal blocks which have an insertion hole into which the guide bar is inserted and are disposed on both end surfaces of the guide portion ; a seal member which is disposed in a seal groove formed on an inner peripheral surface of the insertion hole of the seal blocks and seals a gap between the inner peripheral surface of the insertion hole of the seal block and an outer peripheral surface of the guide bar ; a supply path through which a lubricant is supplied to a bearing gap which is a gap between the bush and the guide bar ; a collection groove which communicates with the bearing gap ; and a collection path which communicates with the collection groove .
A stage device comprising: a stage capable of moving in a first direction and a second direction orthogonal to each other; a scale (S, Sa, Sb, Sc, Sd) arranged in the stage so as to extend in the first direction; an optical assembly (R, Ra, Rb, Rc, Rd) arranged so as to face the scale in at least a part of a movable range of the stage and extending in the second direction; and an interferometer configured to transmit measurement light and reference light to the optical assembly, and receive the measurement light and the reference light returning from the optical assembly, wherein the optical assembly is configured to apply the measurement light from the interferometer to the scale, and return the measurement light returning from the scale and the reference light to the interferometer, characterized in that the optical assembly is an assembly of optical parts each having an elongated shape extending in the second direction. a stage capable of moving in a first direction and a second direction orthogonal to each other; a scale (S, Sa, Sb, Sc, Sd) arranged in the stage so as to extend in the first direction; an optical assembly (R, Ra, Rb, Rc, Rd) arranged so as to face the scale in at least a part of a movable range of the stage and extending in the second direction; and an interferometer configured to transmit measurement light and reference light to the optical assembly, and receive the measurement light and the reference light returning from the optical assembly, wherein the optical assembly is configured to apply the measurement light from the interferometer to the scale, and return the measurement light returning from the scale and the reference light to the interferometer, characterized in that the optical assembly is an assembly of optical parts each having an elongated shape extending in the second direction.
A toy assembly , comprising: a housing ; an inner object inside the housing ; and a breakout mechanism that is associated with the housing and that is operable to break the housing to expose the inner object, wherein the breakout mechanism is powered by a motor that is within the housing and the motor is actuatable from outside the housing , characterised in that the breakout mechanism includes a hammer , positioned in association with the inner object, wherein the motor is operatively connected to the hammer to drive the hammer to impact and break the housing from inside the housing . a housing ; an inner object inside the housing ; and a breakout mechanism that is associated with the housing and that is operable to break the housing to expose the inner object, wherein the breakout mechanism is powered by a motor that is within the housing and the motor is actuatable from outside the housing , characterised in that the breakout mechanism includes a hammer , positioned in association with the inner object, wherein the motor is operatively connected to the hammer to drive the hammer to impact and break the housing from inside the housing .
A straddle-type vehicle comprising an airbag device in a seat for an occupant, wherein the seat includes a front seat and a rear seat disposed on a rear side and an upper side of the front seat , a step portion is formed between the front seat and the rear seat , and the airbag device is disposed on a rear side of the step portion in the seat , an airbag of the airbag device is to be deployed forward of the vehicle, and the airbag includes a forward deployment portion to be deployed forward of the vehicle from the step portion , characterized in that the airbag also includes an inward deployment portion to be deployed inward in a vehicle width direction from a front part of the forward deployment portion . the seat includes a front seat and a rear seat disposed on a rear side and an upper side of the front seat , a step portion is formed between the front seat and the rear seat , and the airbag device is disposed on a rear side of the step portion in the seat , an airbag of the airbag device is to be deployed forward of the vehicle, and the airbag includes a forward deployment portion to be deployed forward of the vehicle from the step portion , characterized in that the airbag also includes an inward deployment portion to be deployed inward in a vehicle width direction from a front part of the forward deployment portion .
A compound of formula 29 having a powder x-ray diffraction pattern comprising 2-theta values of (CuKα radiation, wavelength of 1.54056Å) 5.8 ± 0.2, 11.6 ± 0.2, 16.0 ± 0.2, 16.6 ± 0.2, and 21.6 ± 0.2.
An apparatus comprising: a multi-core processor having a first processing element (212-2-212-n) to support a first virtual machine, VM, and a second processing element (212-2-212-n) to support a second VM ; a receive component (422-1) for execution by the first VM to receive a packet for a service chain flow that is to be processed by a first application also executed by the first VM ; characterized by an access component (422-2) for execution by the first VM to access a first flow table (424-a) from among a plurality of flow tables; a route component (422-3) for execution by the first VM to use the first flow table (424-a) to route the packet following service chain processing by the first application to the second VM for additional service chain processing by a second application executed by the second VM ; and a reference component (422-4) for execution by the first VM to send a message to the second VM that includes a first reference to a first location where the packet for the service chain flow is to be stored following the service chain processing by the first application, wherein the first location is in a memory shared between the first and second VMs for the second VM to receive the packet and the memory shared between the first and second VMs comprises a shared memory ring producing a shared memory mesh, thereby allowing the first and second VMs to receive the packet for service chain processing in a zero copy manner. a multi-core processor having a first processing element (212-2-212-n) to support a first virtual machine, VM, and a second processing element (212-2-212-n) to support a second VM ; a receive component (422-1) for execution by the first VM to receive a packet for a service chain flow that is to be processed by a first application also executed by the first VM ; characterized by an access component (422-2) for execution by the first VM to access a first flow table (424-a) from among a plurality of flow tables; a route component (422-3) for execution by the first VM to use the first flow table (424-a) to route the packet following service chain processing by the first application to the second VM for additional service chain processing by a second application executed by the second VM ; and a reference component (422-4) for execution by the first VM to send a message to the second VM that includes a first reference to a first location where the packet for the service chain flow is to be stored following the service chain processing by the first application, wherein the first location is in a memory shared between the first and second VMs for the second VM to receive the packet and the memory shared between the first and second VMs comprises a shared memory ring producing a shared memory mesh, thereby allowing the first and second VMs to receive the packet for service chain processing in a zero copy manner.
A method for implementing conference control, comprising: a conference application server receiving a conference control request from a chairman terminal during a multi-party conference; the conference application server instructing a media server to perform speech recognition on audio signals transmitted by the chairman terminal; characterized by the conference application server acquiring text information corresponding to the audio signals from the media server; and the conference application server performing a conference control operation based on the text information; wherein before the conference application server instructing the media server to perform the speech recognition on the audio signals transmitted by the chairman terminal, the method further comprises: the conference application server establishing a sub-conference room, and the conference application server transferring the chairman terminal from a main conference room of the multi-party conference to the sub-conference room to separate the chairman terminal from the main conference room of the multi-party conference. a conference application server receiving a conference control request from a chairman terminal during a multi-party conference; the conference application server instructing a media server to perform speech recognition on audio signals transmitted by the chairman terminal; characterized by the conference application server acquiring text information corresponding to the audio signals from the media server; and the conference application server performing a conference control operation based on the text information; wherein before the conference application server instructing the media server to perform the speech recognition on the audio signals transmitted by the chairman terminal, the method further comprises: the conference application server establishing a sub-conference room, and the conference application server transferring the chairman terminal from a main conference room of the multi-party conference to the sub-conference room to separate the chairman terminal from the main conference room of the multi-party conference. the conference application server establishing a sub-conference room, and the conference application server transferring the chairman terminal from a main conference room of the multi-party conference to the sub-conference room to separate the chairman terminal from the main conference room of the multi-party conference.
A method for processing data, comprising: mapping (S201), by a first User Equipment, UE , data to a Quality of Service, QoS, flow at a Vehicle to Everything, V2X, layer according to a first configuration; and transmitting, by the first UE , a first information to an access layer, wherein the first information at least comprises an identification associated with the QoS flow. mapping (S201), by a first User Equipment, UE , data to a Quality of Service, QoS, flow at a Vehicle to Everything, V2X, layer according to a first configuration; and transmitting, by the first UE , a first information to an access layer, wherein the first information at least comprises an identification associated with the QoS flow.
A kiosk configured for mounting to a counter, the counter being of the type including a first portion having a horizontal surface and a second portion having a substantially vertical component , the kiosk comprising: a first substantially rectangular segment extending above the horizontal surface and including a substantially planar touch screen display on a front surface of the first segment , an access panel disposed on a rear surface of the first segment , and a payment module configured to process payment for an item selected using the touch screen; and a second substantially rectangular segment extending downwardly from the first segment ; wherein: the front surface of the first segment is inclined at a first angle with respect to the horizontal surface of the counter in the range of 10 - 80 degrees; and the first segment and the second segment are configured to be disposed on either side of at least a portion of the horizontal surface. a first substantially rectangular segment extending above the horizontal surface and including a substantially planar touch screen display on a front surface of the first segment , an access panel disposed on a rear surface of the first segment , and a payment module configured to process payment for an item selected using the touch screen; and a second substantially rectangular segment extending downwardly from the first segment ; wherein: the front surface of the first segment is inclined at a first angle with respect to the horizontal surface of the counter in the range of 10 - 80 degrees; and the first segment and the second segment are configured to be disposed on either side of at least a portion of the horizontal surface. the front surface of the first segment is inclined at a first angle with respect to the horizontal surface of the counter in the range of 10 - 80 degrees; and the first segment and the second segment are configured to be disposed on either side of at least a portion of the horizontal surface.
A method comprising: forming a recess into a semiconductor substrate , wherein a portion of the semiconductor substrate extends into the recess and is surrounded by the recess; forming a semiconductor single crystal in the recess, the semiconductor single crystal having a different composition from the semiconductor substrate; forming a first doped semiconductor region in the semiconductor substrate; forming a second doped semiconductor region in the semiconductor substrate; wherein the first doped semiconductor region and the second doped semiconductor region form a p-n junction that separates the portion from the rest of the semiconductor substrate. forming a recess into a semiconductor substrate , wherein a portion of the semiconductor substrate extends into the recess and is surrounded by the recess; forming a semiconductor single crystal in the recess, the semiconductor single crystal having a different composition from the semiconductor substrate; forming a first doped semiconductor region in the semiconductor substrate; forming a second doped semiconductor region in the semiconductor substrate; wherein the first doped semiconductor region and the second doped semiconductor region form a p-n junction that separates the portion from the rest of the semiconductor substrate.
An elevator system, comprising: elevator cars ; an elevator controller configured to control operation of one or more of the elevator cars in the elevator system; and a radio signal apparatus (100-01); wherein the radio signal apparatus (100-01) is configured to broadcast an identity of the radio signal apparatus (100-01), wherein the identity comprises a floor information bit, and the floor information bit is used to indicate floor information of the radio signal apparatus (100-01); characterized in that : the radio signal apparatus (100-01) is mounted in an elevator car , and the floor information bit is configured to change as a floor on which the radio signal apparatus (100-01) is located changes. elevator cars ; an elevator controller configured to control operation of one or more of the elevator cars in the elevator system; and a radio signal apparatus (100-01); wherein the radio signal apparatus (100-01) is configured to broadcast an identity of the radio signal apparatus (100-01), wherein the identity comprises a floor information bit, and the floor information bit is used to indicate floor information of the radio signal apparatus (100-01); characterized in that : the radio signal apparatus (100-01) is mounted in an elevator car , and the floor information bit is configured to change as a floor on which the radio signal apparatus (100-01) is located changes.
Mainframe for a wind turbine, having a top side , a bottom side , a front side and a rear side , comprising a circumferential annular wall between the bottom side and the top side , comprising two lateral portions of the wall that extend between the front side and the rear side of the mainframe , and comprising two lateral flanges on the top side of the mainframe , a plurality of arms being arranged within the wall , characterized in that the arms are connected to the wall via a box profile , and at least four arms are arranged, two arms being connected, as a symmetrical pair, on the rear side of the mainframe , at an angle (V) with the box profile and the wall , and two arms being connected, as a symmetrical pair, on the front side of the mainframe , at an angle (U) with the box profile and the wall .
A boring tool comprising • a tool body including a front end and a rear end , between which a central rotation axis (C) extends around which the tool body is rotatable in a direction of rotation (R), • a slider member which is arranged movably inside the tool body along a path (P) extending transversely to said rotation axis, • an insert pocket associated with the slider member to move therewith and configured to receive a cutting insert to be secured therein by a fastening member , which cutting insert has a cutting edge and projects from the tool body transversely to said rotation axis, • a motor member connected to the slider member and controllable to move the slider member transversely to said rotation axis for changing the distance of the cutting edge of the cutting insert to said rotation axis and by that the radius to be created in a hole of a workpiece when bored by rotation of the tool body, and • a control unit configured to control the motor member to move the slider member , wherein the motor member is arranged inside the tool body together with the slider member in a cutting part of the tool body at said front end, the motor member is arranged in parallel with said transversal extension of the slider member along said path (P), characterized in that the slider member is hollow and the motor member is arranged inside the slider member. • a tool body including a front end and a rear end , between which a central rotation axis (C) extends around which the tool body is rotatable in a direction of rotation (R), • a slider member which is arranged movably inside the tool body along a path (P) extending transversely to said rotation axis, • an insert pocket associated with the slider member to move therewith and configured to receive a cutting insert to be secured therein by a fastening member , which cutting insert has a cutting edge and projects from the tool body transversely to said rotation axis, • a motor member connected to the slider member and controllable to move the slider member transversely to said rotation axis for changing the distance of the cutting edge of the cutting insert to said rotation axis and by that the radius to be created in a hole of a workpiece when bored by rotation of the tool body, and • a control unit configured to control the motor member to move the slider member , wherein the motor member is arranged inside the tool body together with the slider member in a cutting part of the tool body at said front end, the motor member is arranged in parallel with said transversal extension of the slider member along said path (P), characterized in that the slider member is hollow and the motor member is arranged inside the slider member.
Device for safely performing an anti-clockwise thermodynamic Clausius-Rankine cycle, as well as its safe emptying and filling by means of a flammable working fluid, which is heaver than air in a gaseous state under atmospheric conditions and is conducted in a closed, hermetically sealed working fluid circuit , having - at least one compressor for working fluid, - at least one expansion device for working fluid, - at least two heat exchangers for working fluid, each having at least two connections for heat transfer fluids, - a closed housing , - which comprises all the apparatuses connected to the closed working fluid circuit , - may comprise further apparatuses, - an apparatus for detecting leaks, characterised in that - the device has a plurality of triggerable zone valve assemblies , by means of which the working fluid is confined in sections within the working fluid circuit in non-regular operation, - each of the triggerable zone valve assemblies is formed of a three-way valve , a discharge valve , and two automatic quick-closing valves , which are connected to the three ports of the three-way valve . - at least one compressor for working fluid, - at least one expansion device for working fluid, - at least two heat exchangers for working fluid, each having at least two connections for heat transfer fluids, - a closed housing , - which comprises all the apparatuses connected to the closed working fluid circuit , - may comprise further apparatuses, - which comprises all the apparatuses connected to the closed working fluid circuit , - may comprise further apparatuses, - an apparatus for detecting leaks, characterised in that - the device has a plurality of triggerable zone valve assemblies , by means of which the working fluid is confined in sections within the working fluid circuit in non-regular operation, - each of the triggerable zone valve assemblies is formed of a three-way valve , a discharge valve , and two automatic quick-closing valves , which are connected to the three ports of the three-way valve .