mhurhangee/patent-ind-claim-en huggingface dataset:
A mouthpiece for teeth illumination, the mouthpiece comprising: - an optically transparent teeth part arranged to face the buccal side of the teeth when in use, - a light guide extending along the teeth part and arranged to transmit light to the optically transparent teeth part , wherein the light guide has an outer surface comprising a first surface facing the buccal side of the teeth and a second surface located opposite to the first surface, - at least one light source arranged for injecting light into the light guide, - a separation portion arranged at least between a part of the first surface of the light guide and the optically transparent teeth part , wherein the separation portion has a refractive index which is lower than the refractive index of the light guide, thereby to enable total internal reflection of at least a part of the injected light at least at the part of the first surface, and - an out-coupling structure arranged to scatter light at a part of the second surface in the light guide to enable transmission of at least a part of the scattered light through the first surface , where the at least a part of the scattered light propagates from the second surface to the first surface via a body part of the light guide located between the first and second surfaces. - an optically transparent teeth part arranged to face the buccal side of the teeth when in use, - a light guide extending along the teeth part and arranged to transmit light to the optically transparent teeth part , wherein the light guide has an outer surface comprising a first surface facing the buccal side of the teeth and a second surface located opposite to the first surface, - at least one light source arranged for injecting light into the light guide, - a separation portion arranged at least between a part of the first surface of the light guide and the optically transparent teeth part , wherein the separation portion has a refractive index which is lower than the refractive index of the light guide, thereby to enable total internal reflection of at least a part of the injected light at least at the part of the first surface, and - an out-coupling structure arranged to scatter light at a part of the second surface in the light guide to enable transmission of at least a part of the scattered light through the first surface , where the at least a part of the scattered light propagates from the second surface to the first surface via a body part of the light guide located between the first and second surfaces.
A heat transfer device , the heat transfer device comprising a first plate like structure , and a second plate like structure , with the second plate like structure projecting from the first plate like structure , wherein both the second plate like structure and the first plate like structure each comprise one or more layers of graphite wherein at least one of the first plate like structure and the second plate like structure comprise a thermally conducting support layer , the heat transfer device further comprising projections that extend from at least one of the one or more sides of one of the thermally conducting support layers , wherein at least some of the projections are arranged in a respective array at the respective thermally conducting support layer , and wherein at least some of the projections project into and optionally through a respective one of the one or more layers of graphite . a second plate like structure , with the second plate like structure projecting from the first plate like structure , wherein both the second plate like structure and the first plate like structure each comprise one or more layers of graphite wherein at least one of the first plate like structure and the second plate like structure comprise a thermally conducting support layer , the heat transfer device further comprising projections that extend from at least one of the one or more sides of one of the thermally conducting support layers , wherein at least some of the projections are arranged in a respective array at the respective thermally conducting support layer , and wherein at least some of the projections project into and optionally through a respective one of the one or more layers of graphite .
A connector comprising: a housing having a fitting portion configured to be fitted into a mounting hole (H); a conductor held by the housing ; and a sealing member mounted on the fitting portion for sealing between the housing and the mounting hole (H), wherein the sealing member includes: an annular sealing portion formed in an annular shape fitted into the fitting portion ; characterized in that the sealing member further includes a band portion connected to the annular sealing portion at both ends and disposed along an end surface of the fitting portion . a housing having a fitting portion configured to be fitted into a mounting hole (H); a conductor held by the housing ; and a sealing member mounted on the fitting portion for sealing between the housing and the mounting hole (H), wherein the sealing member includes: an annular sealing portion formed in an annular shape fitted into the fitting portion ; characterized in that the sealing member further includes a band portion connected to the annular sealing portion at both ends and disposed along an end surface of the fitting portion . an annular sealing portion formed in an annular shape fitted into the fitting portion ; characterized in that the sealing member further includes a band portion connected to the annular sealing portion at both ends and disposed along an end surface of the fitting portion .
Method for monitoring the status of an X-ray tube assembly for an X-ray facility, which assembly includes an X-ray source , comprising the following steps: - determining input information describing the current status of the X-ray source by at least one determination means , - deriving status information to be issued to a user, using the input information by means of a processing means , and - displaying the status information on an indicator device , in particular on a display , characterised in that condition-related information describing the transportation conditions during transportation is used as input information. - determining input information describing the current status of the X-ray source by at least one determination means , - deriving status information to be issued to a user, using the input information by means of a processing means , and - displaying the status information on an indicator device , in particular on a display , characterised in that condition-related information describing the transportation conditions during transportation is used as input information.
Electric machine comprising a stator arranged in a machine housing and a rotor mounted rotatably relative to the stator about an axis of rotation, wherein the machine housing comprises at least one coolant inlet port for supplying coolant to the machine housing and at least one coolant outlet port for draining coolant from the machine housing , wherein the coolant inlet port empties into a distribution annulus , and several housing coolant ducts emerge from the distribution annulus and extend beyond the stator , when viewed in axial direction, and are connected fluidically, on their side facing away from the distribution annulus , to stator cooling duct inlets of stator cooling ducts formed in the stator , which pass entirely through the stator in the axial direction and are connected, on their side facing away from the stator cooling duct inlets , to the coolant outlet port by way of stator cooling duct outlets , wherein the housing cooling ducts have different flow resistances so that the coolant is distributed evenly or at least almost evenly to the housing cooling ducts .
An apparatus comprising: a radiation absorption layer configured to generate charge carriers therein from a radiation particle absorbed by the radiation absorption layer, the radiation absorption layer comprising semiconductor material having a doped region ; a first electrode on a surface of the radiation absorption layer in electrical contact with the doped region; a second electrode ; wherein the first electrode comprises a tip which is tapered or has the shape of a cone, frustum, prism, pyramid, cuboid or cylinder to define a geometry configured to generate an electric field between the first and second electrodes in an amplification region of the radiation absorption layer, the electric field having a field strength sufficient to cause an avalanche of the charge carriers in the amplification region; said apparatus being characterized in that said second electrode is on an opposite surface of the radiation absorption layer from the first electrode . a radiation absorption layer configured to generate charge carriers therein from a radiation particle absorbed by the radiation absorption layer, the radiation absorption layer comprising semiconductor material having a doped region ; a first electrode on a surface of the radiation absorption layer in electrical contact with the doped region; a second electrode ; wherein the first electrode comprises a tip which is tapered or has the shape of a cone, frustum, prism, pyramid, cuboid or cylinder to define a geometry configured to generate an electric field between the first and second electrodes in an amplification region of the radiation absorption layer, the electric field having a field strength sufficient to cause an avalanche of the charge carriers in the amplification region; said apparatus being characterized in that said second electrode is on an opposite surface of the radiation absorption layer from the first electrode .
A method for producing a deodorizer comprising, in the following order: a production step of producing a zeolite; and a heating step of heating the zeolite obtained at the production step at a temperature of from 120°C to 250°C, to obtain a zeolite represented by Formula : xNa 2 O•Al 2 O 3 •ySiO 2 •zH 2 O wherein x represents a positive number of from 1.5 to 2.2, y represents a positive number of from 98 to 114, and z represents a positive number of from 1 to 20. a production step of producing a zeolite; and a heating step of heating the zeolite obtained at the production step at a temperature of from 120°C to 250°C, to obtain a zeolite represented by Formula : xNa 2 O•Al 2 O 3 •ySiO 2 •zH 2 O wherein x represents a positive number of from 1.5 to 2.2, y represents a positive number of from 98 to 114, and z represents a positive number of from 1 to 20.
A base station configured to perform radio communication with a mobile station , the base station comprising: a control unit configured to notify the mobile station of control information including information relevant to transmission power at which the mobile station transmits a signal to another mobile station when the mobile station performs direct radio communication with the other mobile station, , wherein the information relevant to transmission power is information for switching between methods for controlling the transmission power.
A hose end regulator for regulating pressure in fluid comprising: a main body having a fluid inlet and a fluid outlet ; a poppet moving between an open position to permit a fluid to flow through the fluid outlet and a closed position to militate against the fluid flowing through the fluid outlet ; a primary spring permitting the poppet to move between the open position and the closed position, the primary spring urging the poppet to the open position; and a flow maximizer minimizing movement of the primary spring until a predetermined fluid pressure is reached within the main body , and wherein the flow maximizer is received in the primary spring , and wherein the flow maximizer includes a body and an actuator received at least partially within the body , and wherein a return spring is disposed within the body and extends between a first end of the body and the actuator , and characterized in that the actuator cooperates with release balls disposed within catches formed on an inner surface of the body to regulate movement of the actuator , the return spring , and the primary spring , and wherein at least four release balls extend through the actuator , and wherein a release pin assembly cooperates with the release balls to regulate movement of the actuator , the return spring , and the primary spring , wherein the release pin assembly includes a release pin configured to engage the release balls , an adjuster spring cooperating with the release pin to regulate movement of the actuator , and an adjustment screw adjusting a spring force of the adjuster spring . a main body having a fluid inlet and a fluid outlet ; a poppet moving between an open position to permit a fluid to flow through the fluid outlet and a closed position to militate against the fluid flowing through the fluid outlet ; a primary spring permitting the poppet to move between the open position and the closed position, the primary spring urging the poppet to the open position; and a flow maximizer minimizing movement of the primary spring until a predetermined fluid pressure is reached within the main body , and wherein the flow maximizer is received in the primary spring , and wherein the flow maximizer includes a body and an actuator received at least partially within the body , and wherein a return spring is disposed within the body and extends between a first end of the body and the actuator , and characterized in that the actuator cooperates with release balls disposed within catches formed on an inner surface of the body to regulate movement of the actuator , the return spring , and the primary spring , and wherein at least four release balls extend through the actuator , and wherein a release pin assembly cooperates with the release balls to regulate movement of the actuator , the return spring , and the primary spring , wherein the release pin assembly includes a release pin configured to engage the release balls , an adjuster spring cooperating with the release pin to regulate movement of the actuator , and an adjustment screw adjusting a spring force of the adjuster spring .
Use of a sealing sleeve , which sealing sleeve has a casting section and a fold section , wherein the sealing sleeve is molded into a wall or floor element , wherein the i.) fold section is folded into the casting section during the molding of the sealing sleeve and ii.) the fold section is folded out after the molding of the sealing sleeve , wherein subsequently iii.) a pipe is inserted into the folded out fold section up to a stop into the sealing sleeve , namely up to an end position in which an end of the pipe is arranged in the sealing sleeve . i.) fold section is folded into the casting section during the molding of the sealing sleeve and ii.) the fold section is folded out after the molding of the sealing sleeve , wherein subsequently iii.) a pipe is inserted into the folded out fold section up to a stop into the sealing sleeve , namely up to an end position in which an end of the pipe is arranged in the sealing sleeve .
A camera module , applied to a mobile terminal, wherein the camera module comprises: a base , a lifting camera lens that may slide relative to the base , and a drive apparatus, wherein the drive apparatus comprises: a rotating cylinder that may rotate relative to the base and is configured to drive the lifting camera lens to rise or fall, wherein the rotating cylinder is sleeved outside the lifting camera lens ; and a drive mechanism for driving the rotating cylinder to rotate, wherein the camera module further comprises a casing connected to the base in a fastened manner, wherein the drive apparatus and the lifting camera lens are located inside the casing , and when the lifting camera lens protrudes, the lifting camera lens is exposed outside the casing , wherein the casing is provided with a first through hole through which the lifting camera lens passes, the lifting camera lens is exposed after passing through the first through hole , and the lifting camera lens is connected to the first through hole in a sealed manner, and wherein a sealing ring is embedded in the first through hole , and an annular groove is disposed on a surface of the sealing ring on which the sealing ring is in contact with the lifting camera lens . a rotating cylinder that may rotate relative to the base and is configured to drive the lifting camera lens to rise or fall, wherein the rotating cylinder is sleeved outside the lifting camera lens ; and a drive mechanism for driving the rotating cylinder to rotate, wherein the camera module further comprises a casing connected to the base in a fastened manner, wherein the drive apparatus and the lifting camera lens are located inside the casing , and when the lifting camera lens protrudes, the lifting camera lens is exposed outside the casing , wherein the casing is provided with a first through hole through which the lifting camera lens passes, the lifting camera lens is exposed after passing through the first through hole , and the lifting camera lens is connected to the first through hole in a sealed manner, and wherein a sealing ring is embedded in the first through hole , and an annular groove is disposed on a surface of the sealing ring on which the sealing ring is in contact with the lifting camera lens .
A method of coating a steel or steel alloy material consisting of ferrite, martensite or bainite as a first microstructure at a reduced bath temperature, comprising: providing a steel or steel alloy material; simultaneously quenching and coating the steel or steel alloy material in a zinc-based alloy bath with a zinc-based alloy coating including a zinc-based alloy material and at least one dopant to form a coated steel or steel alloy material, wherein a liquidus temperature of the zinc-based alloy coating in the zinc-based alloy bath is between 275°C and 365°C, and wherein the zinc-based alloy bath has an operating temperature that is between 0°C and 50°C higher than the liquidus temperature; and altering said first microstructure of the ferrite, martensite or bainite in the steel or steel alloy material to form an alternative microstructure by a change in at least one of martensite tempering, bainite austempering, or a lack of carbon aging when coating the steel or steel alloy material with the zinc-based coating. providing a steel or steel alloy material; simultaneously quenching and coating the steel or steel alloy material in a zinc-based alloy bath with a zinc-based alloy coating including a zinc-based alloy material and at least one dopant to form a coated steel or steel alloy material, wherein a liquidus temperature of the zinc-based alloy coating in the zinc-based alloy bath is between 275°C and 365°C, and wherein the zinc-based alloy bath has an operating temperature that is between 0°C and 50°C higher than the liquidus temperature; and altering said first microstructure of the ferrite, martensite or bainite in the steel or steel alloy material to form an alternative microstructure by a change in at least one of martensite tempering, bainite austempering, or a lack of carbon aging when coating the steel or steel alloy material with the zinc-based coating.
A cable network apparatus, comprising: a processor ; and a memory element in communication with the processor , the processor configured to: send a first message to at least a first cable modem of a plurality of cable modems , the first message indicating an upstream test signal to be generated by the first cable modem within a predetermined portion of a frequency spectrum allocated for downstream communication, wherein the predetermined portion of the frequency spectrum includes a portion of the frequency spectrum allocated to inactive downstream frames; send a second message to at least a second cable modem of the plurality of cable modems , the second message indicating a downstream interference measurement to be performed on the upstream test signal by the second cable modem; receive at least one interference measurement result indicative of the downstream interference measurement; and determine at least one interference group for the plurality of cable modems based upon the at least one interference measurement result. a processor ; and a memory element in communication with the processor , the processor configured to: send a first message to at least a first cable modem of a plurality of cable modems , the first message indicating an upstream test signal to be generated by the first cable modem within a predetermined portion of a frequency spectrum allocated for downstream communication, wherein the predetermined portion of the frequency spectrum includes a portion of the frequency spectrum allocated to inactive downstream frames; send a second message to at least a second cable modem of the plurality of cable modems , the second message indicating a downstream interference measurement to be performed on the upstream test signal by the second cable modem; receive at least one interference measurement result indicative of the downstream interference measurement; and determine at least one interference group for the plurality of cable modems based upon the at least one interference measurement result. send a first message to at least a first cable modem of a plurality of cable modems , the first message indicating an upstream test signal to be generated by the first cable modem within a predetermined portion of a frequency spectrum allocated for downstream communication, wherein the predetermined portion of the frequency spectrum includes a portion of the frequency spectrum allocated to inactive downstream frames; send a second message to at least a second cable modem of the plurality of cable modems , the second message indicating a downstream interference measurement to be performed on the upstream test signal by the second cable modem; receive at least one interference measurement result indicative of the downstream interference measurement; and determine at least one interference group for the plurality of cable modems based upon the at least one interference measurement result.
An apparatus for storing organic materials, the apparatus including: a body having an opening for receiving the organic materials to be stored and a hopper for collecting the organic materials; an outlet formed in the body through which the organic materials are unloaded from the body ; a cooling fluid circuit for circulating cooling fluid through the organic materials collected in the hopper ; and a transfer mechanism disposed along a floor of the hopper , characterised in that : the transfer mechanism comprises a plurality of auger shafts rotatable to transfer the organic materials from the hopper toward the outlet, and each auger shaft associated with a drain trough located below the plurality of auger shafts , the plurality of auger shafts further acting as a sieve system for draining fluid from the organic materials into the drain troughs . a body having an opening for receiving the organic materials to be stored and a hopper for collecting the organic materials; an outlet formed in the body through which the organic materials are unloaded from the body ; a cooling fluid circuit for circulating cooling fluid through the organic materials collected in the hopper ; and a transfer mechanism disposed along a floor of the hopper , characterised in that : the transfer mechanism comprises a plurality of auger shafts rotatable to transfer the organic materials from the hopper toward the outlet, and each auger shaft associated with a drain trough located below the plurality of auger shafts , the plurality of auger shafts further acting as a sieve system for draining fluid from the organic materials into the drain troughs .