mhurhangee/patent-ind-claim-en huggingface dataset:
A method of configuring a programmable integrated circuit (IC) in a computer system, comprising: selecting a first region of a programmable fabric of the programmable IC for implementation of a shell circuit, the shell circuit configured to interface with a bus of the computer system; selecting a second region of the programmable fabric for implementation of an application circuit, the application circuit configured to interface with the shell circuit ; providing a fence region disposed between the first region and the second region , the fence region including a set of un-configured tiles of the programmable fabric; generating configuration data for a circuit design having the first region , the second region , and the fence region ; and loading the configuration data to the programmable IC ; wherein the application circuit is coupled to the shell circuit using connections through the fence region , and the shell circuit controls access by the application circuit to signals via the connections through the fence region and allows the application circuit to access only non-privileged data. selecting a first region of a programmable fabric of the programmable IC for implementation of a shell circuit, the shell circuit configured to interface with a bus of the computer system; selecting a second region of the programmable fabric for implementation of an application circuit, the application circuit configured to interface with the shell circuit ; providing a fence region disposed between the first region and the second region , the fence region including a set of un-configured tiles of the programmable fabric; generating configuration data for a circuit design having the first region , the second region , and the fence region ; and loading the configuration data to the programmable IC ; wherein the application circuit is coupled to the shell circuit using connections through the fence region , and the shell circuit controls access by the application circuit to signals via the connections through the fence region and allows the application circuit to access only non-privileged data.
A windshield for a vehicle, comprising a MIMO antenna , wherein the windshield is capable of being provided at an open portion of a window frame , and the MIMO antenna comprises: a plurality of antenna elements respectively including a plurality of conductive elements that are configured to be connected to different feeding points from each other; and one or more base members each being directly or indirectly provided at an upper edge portion of the windshield , wherein each base member is provided with a left side portion , a right side portion , a top portion , a bottom portion , a front surface portion and a back surface portion which serves as the attaching portion to the windshield , the conductive elements being provided on either of the base members , wherein the conductive elements include a conductive portion arranged vertically on a glass surface that is to be an inner surface of the windshield at a vehicle room side, wherein D/ W, where "W" is a width of the open portion and "D" is a minimum distance between the conductive elements of the antenna elements in a direction parallel to the direction of "W", is less than or equal to 0.35, wherein the conductive elements include a first conductive element and a second conductive element ; the windshield being characterized in that at least a part of the first conductive element is a wide width conductor, provided on a surface next to the left side portion or the right side portion of the base member on which 25 the conductive portion is provided, and is provided along an edge side of a side of the base member on which the second conductive element is provided. a plurality of antenna elements respectively including a plurality of conductive elements that are configured to be connected to different feeding points from each other; and one or more base members each being directly or indirectly provided at an upper edge portion of the windshield , wherein each base member is provided with a left side portion , a right side portion , a top portion , a bottom portion , a front surface portion and a back surface portion which serves as the attaching portion to the windshield , the conductive elements being provided on either of the base members , wherein the conductive elements include a conductive portion arranged vertically on a glass surface that is to be an inner surface of the windshield at a vehicle room side, wherein D/ W, where "W" is a width of the open portion and "D" is a minimum distance between the conductive elements of the antenna elements in a direction parallel to the direction of "W", is less than or equal to 0.35, wherein the conductive elements include a first conductive element and a second conductive element ; the windshield being characterized in that at least a part of the first conductive element is a wide width conductor, provided on a surface next to the left side portion or the right side portion of the base member on which 25 the conductive portion is provided, and is provided along an edge side of a side of the base member on which the second conductive element is provided.
A masticating juicer , comprising: a housing defining a compression chamber with an inner wall , at least one inlet, at least one juice outlet, and at least one pulp outlet; an auger rotatably mounted within the compression chamber , the auger including upstream and downstream ends and an auger surface in between, the auger being rotatable about an axis of rotation to masticate and convey material along the auger surface in a downstream direction from the upstream end towards the downstream end, the auger being sized so that a cavity is formed between the auger surface and the inner wall of the compression chamber; and an elastic restrictor extending circumferentially around an interior of the compression chamber to at least partially span the cavity, wherein the elastic restrictor is shaped to provide variable resistance to material conveyed by the auger depending on a relative position of the material between the inner wall and the auger surface characterized in that the inner wall or the outer surface of the auger includes a transition surface that extends radially between the inner wall and the auger surface , upstream of the elastic restrictor , defining a circumferential pulp calibration channel in the cavity immediately upstream of the elastic restrictor . a housing defining a compression chamber with an inner wall , at least one inlet, at least one juice outlet, and at least one pulp outlet; an auger rotatably mounted within the compression chamber , the auger including upstream and downstream ends and an auger surface in between, the auger being rotatable about an axis of rotation to masticate and convey material along the auger surface in a downstream direction from the upstream end towards the downstream end, the auger being sized so that a cavity is formed between the auger surface and the inner wall of the compression chamber; and an elastic restrictor extending circumferentially around an interior of the compression chamber to at least partially span the cavity, wherein the elastic restrictor is shaped to provide variable resistance to material conveyed by the auger depending on a relative position of the material between the inner wall and the auger surface characterized in that the inner wall or the outer surface of the auger includes a transition surface that extends radially between the inner wall and the auger surface , upstream of the elastic restrictor , defining a circumferential pulp calibration channel in the cavity immediately upstream of the elastic restrictor .
A method of wireless communication at a user equipment, UE, comprising: transmitting , to a base station, UE capability information corresponding to at least one of a first maximum number of configured pathloss reference signals or a second maximum number of activated pathloss reference signals, the UE capability information being associated with UE capability for performing layer 3, L3, filtering of one or more activated pathloss reference signals; and receiving a configuration from the base station for at least one of configured pathloss reference signals or activated pathloss reference signals based on the UE capability information, wherein the activated pathloss reference signals are associated with at least one sounding reference signal, SRS, resource set. transmitting , to a base station, UE capability information corresponding to at least one of a first maximum number of configured pathloss reference signals or a second maximum number of activated pathloss reference signals, the UE capability information being associated with UE capability for performing layer 3, L3, filtering of one or more activated pathloss reference signals; and receiving a configuration from the base station for at least one of configured pathloss reference signals or activated pathloss reference signals based on the UE capability information, wherein the activated pathloss reference signals are associated with at least one sounding reference signal, SRS, resource set.
A device for handling tires , which has a tire conveying means for conveying the tires , wherein the tire conveying means has three conveyor tracks , which are arranged parallel to one another and which are spaced apart from one another by means of a respective lane between one of the outer conveyor tracks and the middle conveyor track transversely to the conveying direction (a), characterized in that the device has two fork elements , which are parallel to one another and which have a first leg and a second leg (15", 16"), wherein a common pivot axis (S) of the fork elements runs through the connecting point of the respective two legs (15', 16', 15", 16"), and that one of the respective fork elements is arranged in each of the lanes so as to be capable of being pivoted about the connecting point in such a way that - in a first position, the second leg (15", 16") of each of the fork elements is in each case received in a conveyor track plane, and - in a second position, both legs (15', 16', 15", 16") of each of the fork elements extend out of the conveyor track plane, and that at least the first leg of each fork element has a roller on the side facing the respective associated second leg (15", 16"), the axis of rotation of which roller runs parallel to the associated leg (15', 16', 15", 16"), wherein at least one roller of a first leg is driven. - in a first position, the second leg (15", 16") of each of the fork elements is in each case received in a conveyor track plane, and - in a second position, both legs (15', 16', 15", 16") of each of the fork elements extend out of the conveyor track plane, and that
A method for producing a medical instrument including a base layer, and a lubricating layer that is carried on at least a part of the base layer, the method comprising: applying a solution to the base layer, the solution containing a block copolymer having a structural unit (A) derived from a reactive monomer having an epoxy group and a structural unit (B) derived from a hydrophilic monomer, an alkylammonium salt having 8 to 24 carbon atoms, and a solvent; and washing the base layer following the applying of the solution to the base layer. applying a solution to the base layer, the solution containing a block copolymer having a structural unit (A) derived from a reactive monomer having an epoxy group and a structural unit (B) derived from a hydrophilic monomer, an alkylammonium salt having 8 to 24 carbon atoms, and a solvent; and washing the base layer following the applying of the solution to the base layer.
An aerosol generation assembly comprising: - a storage portion for storing an aerosol forming precursor; - a heater configured to heat the aerosol forming precursor to generate aerosol into a flow path ; characterized in that the aerosol generation assembly further comprises: - at least one gauge sensor configured to provide data relative to the amount of aerosol forming precursor remaining in the storage portion ; - a puff sensor configured to detect and to provide data relative to the flowrate of the generated aerosol in the flow path ; - an electronic system for estimating continuously the amount of aerosol forming precursor remaining in the storage portion comprising : + an estimation module configured to determine continuously an estimated amount of aerosol forming precursor remaining in the storage portion based on the data provided by the puff sensor ; and + a recalibration module configured to recalibrate at several intervals of time said estimated amount based on the data provided by the or each gauge sensor , to obtain a recalibrated amount of aerosol forming precursor remaining in the storage portion . - a storage portion for storing an aerosol forming precursor; - a heater configured to heat the aerosol forming precursor to generate aerosol into a flow path ; - at least one gauge sensor configured to provide data relative to the amount of aerosol forming precursor remaining in the storage portion ; - a puff sensor configured to detect and to provide data relative to the flowrate of the generated aerosol in the flow path ; - an electronic system for estimating continuously the amount of aerosol forming precursor remaining in the storage portion comprising : + an estimation module configured to determine continuously an estimated amount of aerosol forming precursor remaining in the storage portion based on the data provided by the puff sensor ; and + a recalibration module configured to recalibrate at several intervals of time said estimated amount based on the data provided by the or each gauge sensor , to obtain a recalibrated amount of aerosol forming precursor remaining in the storage portion . + an estimation module configured to determine continuously an estimated amount of aerosol forming precursor remaining in the storage portion based on the data provided by the puff sensor ; and + a recalibration module configured to recalibrate at several intervals of time said estimated amount based on the data provided by the or each gauge sensor , to obtain a recalibrated amount of aerosol forming precursor remaining in the storage portion .
A power supply configured for supplying power in high external magnetic fields, wherein a high external magnetic field is an external magnetic field greater than 0.2 Tesla (T), the power supply comprising: a power converter system which is adapted to convert input power to output power using one or more electromagnetic components ; one or more ferrous bands which encircle the electromagnetic components and which are configured to shield the electromagnetic components from the high external magnetic fields; and a thermal control system which is adapted to: monitor temperatures of said one or more electromagnetic components of the power converter system ; and selectively disable one or more loads of the power converter system in response to the monitored temperatures exceeding thresholds to reduce the monitored temperatures. a power converter system which is adapted to convert input power to output power using one or more electromagnetic components ; one or more ferrous bands which encircle the electromagnetic components and which are configured to shield the electromagnetic components from the high external magnetic fields; and a thermal control system which is adapted to: monitor temperatures of said one or more electromagnetic components of the power converter system ; and selectively disable one or more loads of the power converter system in response to the monitored temperatures exceeding thresholds to reduce the monitored temperatures.
Device for introducing openings into a disposal bag for a vacuuming device , wherein the vacuuming device has a suction head and a collecting tank , characterized in that the device comprises components that are configured in a manner corresponding to one another, wherein the components of the device that are configured in a manner corresponding to one another comprise an open structure, wherein the open structure is designed to effect pressure equalization between a first region and a second region of the collecting tank .
A method for producing a multipack , the method comprising the following steps: - providing a plurality of beverage containers , - forming openings in a flat packaging blank , and - applying the flat packaging blank onto the plurality of provided beverage containers , wherein the plurality of provided beverage containers dip into the openings of the flat packaging blank and are subsequently held to each other in a form-fitting manner via the flat packaging blank , wherein, - in order to form the openings , a particular portion is at least partially separated from the flat packaging blank , and the particular portion separated at least partially from the flat packaging blank is assigned to a top side of a particular beverage container such that the portion separated at least partially from the flat packaging blank at least in sections covers the particular top side of a particular assigned beverage container in the multipack , characterised in that the particular portion at least partially separated from the flat packaging blank is joined to a particular top side of a particular assigned beverage container with a particular adhesive application. - providing a plurality of beverage containers , - forming openings in a flat packaging blank , and - applying the flat packaging blank onto the plurality of provided beverage containers , wherein the plurality of provided beverage containers dip into the openings of the flat packaging blank and are subsequently held to each other in a form-fitting manner via the flat packaging blank , wherein, - in order to form the openings , a particular portion is at least partially separated from the flat packaging blank , and the particular portion separated at least partially from the flat packaging blank is assigned to a top side of a particular beverage container such that the portion separated at least partially from the flat packaging blank at least in sections covers the particular top side of a particular assigned beverage container in the multipack , characterised in that the particular portion at least partially separated from the flat packaging blank is joined to a particular top side of a particular assigned beverage container with a particular adhesive application.
A single-crystal X-ray structure analysis apparatus configured to perform a structure analysis of a material, the apparatus comprising: an X-ray source configured to generate X-rays; a goniometer having a goniometer head configured such that a sample holder may be attached, the sample holder configured to hold a porous complex crystal in which a sample is soaked; an X-ray irradiation section configured to irradiate X-rays to the porous complex crystal , the goniometer head being configured to adjust the position of the porous complex crystal ; an X-ray detection measurement section configured to detect and measure X-rays diffracted or scattered by the sample; and a structure analysis section adapted to perform a structure analysis of the sample based on the diffracted or scattered X-rays detected by the X-ray detection measurement section, wherein a tip portion of the goniometer head is small enough to fit inside a recess portion of the sample holder , and has a protrusion portion adapted to fit with a through-hole of the sample holder and position the sample holder ; the sample holder configured to be attached to the goniometer head by inserting the tip portion of the goniometer head into the recess portion and fitting the protrusion portion with the through-hole . an X-ray source configured to generate X-rays; a goniometer having a goniometer head configured such that a sample holder may be attached, the sample holder configured to hold a porous complex crystal in which a sample is soaked; an X-ray irradiation section configured to irradiate X-rays to the porous complex crystal , the goniometer head being configured to adjust the position of the porous complex crystal ; an X-ray detection measurement section configured to detect and measure X-rays diffracted or scattered by the sample; and a structure analysis section adapted to perform a structure analysis of the sample based on the diffracted or scattered X-rays detected by the X-ray detection measurement section, wherein a tip portion of the goniometer head is small enough to fit inside a recess portion of the sample holder , and has a protrusion portion adapted to fit with a through-hole of the sample holder and position the sample holder ; the sample holder configured to be attached to the goniometer head by inserting the tip portion of the goniometer head into the recess portion and fitting the protrusion portion with the through-hole .
Wear assembly of an earth-moving machine comprising: - a wear element ; and - a support ; said wear element configured for being coupled to said support such that an interface is defined between said support and said wear element , with a first interface surface and a second interface surface , opposite one another; characterized in that it further comprises: - a magnetic portion configured to generate a magnetic field, said magnetic portion being provided at one of said wear element and said support , such that one of the magnetic poles of said magnetic field is perpendicular to said second interface surface ; and - a magnetic detector , provided at the other one of said wear element and said support , such that it has a maximum of detection in a direction perpendicular to said second interface surface ; wherein said second interface surface has: - a channel extending from said second interface surface to a first depth inside the corresponding wear element or support ; and - a step-shaped recess adjoining said channel and extending from said second interface surface to a second depth, said second depth being less than said first depth; said magnetic detector being provided in said step-shaped recess . - a wear element ; and - a support ; said wear element configured for being coupled to said support such that an interface is defined between said support and said wear element , with a first interface surface and a second interface surface , opposite one another; characterized in that it further comprises: - a magnetic portion configured to generate a magnetic field, said magnetic portion being provided at one of said wear element and said support , such that one of the magnetic poles of said magnetic field is perpendicular to said second interface surface ; and - a magnetic detector , provided at the other one of said wear element and said support , such that it has a maximum of detection in a direction perpendicular to said second interface surface ; - a magnetic portion configured to generate a magnetic field, said magnetic portion being provided at one of said wear element and said support , such that one of the magnetic poles of said magnetic field is perpendicular to said second interface surface ; and - a magnetic detector , provided at the other one of said wear element and said support , such that it has a maximum of detection in a direction perpendicular to said second interface surface ; wherein said second interface surface has: - a channel extending from said second interface surface to a first depth inside the corresponding wear element or support ; and - a step-shaped recess adjoining said channel and extending from said second interface surface to a second depth, said second depth being less than said first depth; - a channel extending from said second interface surface to a first depth inside the corresponding wear element or support ; and - a step-shaped recess adjoining said channel and extending from said second interface surface to a second depth, said second depth being less than said first depth; said magnetic detector being provided in said step-shaped recess .