mhurhangee/patent-ind-claim-en huggingface dataset:
A method for generating a partially cured item by partially curing an initial photoreactive material for 3D printing, comprising the steps of: a. providing an item comprising the initial photoreactive material for 3D printing, b. a partial irradiation step comprising irradiating at least one curing section of the initial photoreactive material for 3D printing of the item with a curing irradiation, yielding at least one cured section of a partially-cured item , and at least one semi-curing section of the initial photoreactive material of the item is irradiated with a semi-curing irradiation, yielding at least one semi-cured section of the partially-cured item, wherein a section is a spatial area of the partially-cured item, and wherein the partially-cured item comprises a plurality of layers, wherein the at least one semi-curing section is semi-cured with a semi-curing irradiation of a different semi-curing energy and/or a different semi-curing duration so that the at least one semi-cured section of each layer has a different hardness, wherein the partially cured item is a precursor of a dental item. a. providing an item comprising the initial photoreactive material for 3D printing, b. a partial irradiation step comprising irradiating at least one curing section of the initial photoreactive material for 3D printing of the item with a curing irradiation, yielding at least one cured section of a partially-cured item , and at least one semi-curing section of the initial photoreactive material of the item is irradiated with a semi-curing irradiation, yielding at least one semi-cured section of the partially-cured item, wherein a section is a spatial area of the partially-cured item, and wherein the partially-cured item comprises a plurality of layers, wherein the at least one semi-curing section is semi-cured with a semi-curing irradiation of a different semi-curing energy and/or a different semi-curing duration so that the at least one semi-cured section of each layer has a different hardness, wherein the partially cured item is a precursor of a dental item. and wherein the partially-cured item comprises a plurality of layers, wherein the at least one semi-curing section is semi-cured with a semi-curing irradiation of a different semi-curing energy and/or a different semi-curing duration so that the at least one semi-cured section of each layer has a different hardness, wherein the partially cured item is a precursor of a dental item.
A mobile compressed air tool unit comprising a tool operated with compressed air and a compressed air storage unit , which are connected to each other via a compressed air connection , the compressed air connection being realized as a support for the tubeless connection of the tool and the compressed air storage unit in a defined relative arrangement and for design of the compressed air tool unit as a handling unit, the compressed air connection being realized as a compressed-air reducing unit having a compressed air storage port and a compressed air tool port which are arranged on a port side of a housing of the compressed-air reducing unit , the compressed air storage port and the compressed air tool port having parallel port axes , and the port axes being arranged perpendicular to the port side , characterised in that the port axes have an axial distance a from each other which corresponds to the distance b between a longitudinal axis of a handle part of the connected tool , said handle part extending coaxially with the compressed air tool port , and a longitudinal axis of a magazine of the tool , said magazine extending substantially parallel to the handle part .
A peripheral device configured to implement a PCI or PCI-derivative protocol, the peripheral device comprising: an emulation component ; a bus interface core including a set of native configuration registers, wherein the native configuration registers are non-emulated; memory storing an emulated configuration space ; and a configuration management component coupled to the bus interface core , the configuration management component configured to: receive a configuration access request from the bus interface core ; request the emulation component to retrieve an emulated configuration from the emulated configuration space ; and service the configuration access request using the emulated configuration. an emulation component ; a bus interface core including a set of native configuration registers, wherein the native configuration registers are non-emulated; memory storing an emulated configuration space ; and a configuration management component coupled to the bus interface core , the configuration management component configured to: receive a configuration access request from the bus interface core ; request the emulation component to retrieve an emulated configuration from the emulated configuration space ; and service the configuration access request using the emulated configuration. receive a configuration access request from the bus interface core ; request the emulation component to retrieve an emulated configuration from the emulated configuration space ; and service the configuration access request using the emulated configuration.
Combination of an LED module with an integrated emergency light function and at least one operating device, wherein the LED module comprises a plurality of LEDs mounted on a common carrier , wherein the LED module is configured to connect to the at least one operating device and the plurality of LEDs are configured to be activated in a controlled manner by the at least one operating device , wherein the LED module (20; 51, 53) is configured such that in a normal operating mode, a group of LEDs from the plurality of LEDs can be activated by the at least one operating device , in order to effect a light output via a first light-emitting surface of the LED module (20; 51, 53), in an emergency light operating mode, at least a part of the LEDs belonging to the group can be activated by the at least one operating device , in order to effect a light output via a second light-emitting surface of the LED module (20; 51, 53), wherein when the emergency light operating mode is initiated, a further part of the LEDs belonging to the group is not supplied with power, so that the second light-emitting surface has a first dimension in a first direction and in a second direction perpendicular thereto has a second dimension that is smaller than the first dimension , and wherein the first light-emitting surface and the second light-emitting surface have different shapes, wherein the first light-emitting surface has a third dimension in the first direction and in the second direction has a fourth dimension that is greater than the second dimension of the second light-emitting surface , characterized in that the LED module (20; 51, 53) is configured such that a further group of LEDs of the plurality of LEDs can be selectively activated by the at least one operating device only in the emergency light operating mode, in order to effect a light output via the second light-emitting surface of the LED module (20; 51, 53), wherein the third dimension of the first light-emitting surface is smaller than the first dimension of the second light-emitting surface .
A composition for use in predicting prognosis or chemotherapy responsiveness of stage II and III gastric cancer, the composition comprising: an agent for measuring an mRNA expression level in a prognosis or chemotherapy responsiveness-related marker gene group including WARS, GZMB, CDX1 and SFRP4; and an agent for measuring an mRNA expression level in a reference gene group including ACTB, ATP5E, GPX1, UBB and HPRT1, wherein the agent for measuring an mRNA expression level of the prognosis or chemotherapy responsiveness-related marker gene group or the reference gene group is a set of primers set forth in SEQ ID NOs: 1 to 18; or probes set forth in SEQ ID NOs: 19 to 27, wherein the mRNA expression level of a prognosis-related marker gene group consisting of WARS, GZMB and SFRP4 is used to predict prognosis of stage II and III gastric cancer, and the mRNA expression level of a chemotherapy responsiveness-related marker gene group consisting of WARS, GZMB and CDX1 is used to predict chemotherapy responsiveness of stage II and III gastric cancer. an agent for measuring an mRNA expression level in a prognosis or chemotherapy responsiveness-related marker gene group including WARS, GZMB, CDX1 and SFRP4; and an agent for measuring an mRNA expression level in a reference gene group including ACTB, ATP5E, GPX1, UBB and HPRT1, wherein the agent for measuring an mRNA expression level of the prognosis or chemotherapy responsiveness-related marker gene group or the reference gene group is a set of primers set forth in SEQ ID NOs: 1 to 18; or probes set forth in SEQ ID NOs: 19 to 27, wherein the mRNA expression level of a prognosis-related marker gene group consisting of WARS, GZMB and SFRP4 is used to predict prognosis of stage II and III gastric cancer, and the mRNA expression level of a chemotherapy responsiveness-related marker gene group consisting of WARS, GZMB and CDX1 is used to predict chemotherapy responsiveness of stage II and III gastric cancer.
Adhesive melting apparatus for an edge-banding machine, wherein the adhesive melting apparatus comprises a melt chamber for accommodating adhesive material to be melted, a melting device having an electrically heatable melting body for melting the adhesive material, and a pressing piston that is movable in a feed direction for pressing the adhesive material located in the melt chamber against the melting body , and wherein the melting body comprises a multitude of through-channels , which extend in the feed direction , and wherein the melting device comprises a collection body , which adjoins the melting body in the feed direction and is releasably connectable to the melting body , wherein the collection body comprises a plurality of collection channels into which the through-channels of the melting body open and which guide the molten adhesive material to an outlet region of the collection body , characterized in that a plurality of through-channels open successively into the collection channels in the direction of the outlet region and the flow cross-section of the collection channels increases in the direction of the outlet region .
A method for handling a service request in a network, wherein the method is performed by a first service communication proxy, SCP, node that is configured to operate as an SCP between a first network function, NF, node of a service consumer and a second NF node of a service producer in the network, the method comprising: in response to receiving, from the first NF node , a first request for a further NF node to provide a first service requested by the first NF node : selecting the second NF node using discovery parameters received from the first NF node as the further NF node to provide the first service ; storing an identifier of the selected second NF node obtained from a profile of the second NF node; initiating transmission towards the selected second NF node of the first request; receiving, from the second NF node , a first response to the first request; obtaining and storing location information of the selected second NF node from the first response, wherein the location information of the selected second NF node is stored in association with the identifier of the selected second NF node ; and initiating transmission of the first response towards the first NF node . selecting the second NF node using discovery parameters received from the first NF node as the further NF node to provide the first service ; storing an identifier of the selected second NF node obtained from a profile of the second NF node; initiating transmission towards the selected second NF node of the first request; receiving, from the second NF node , a first response to the first request; obtaining and storing location information of the selected second NF node from the first response, wherein the location information of the selected second NF node is stored in association with the identifier of the selected second NF node ; and initiating transmission of the first response towards the first NF node .
A foam vacuum gripper device comprising at least a vacuum gripper body and at least one foam layer arranged on a bottom surface of the vacuum gripper, wherein at least the foam layer is secured to the vacuum gripper body by way of a magnetic attraction between the bottom surface of the vacuum gripper body and the foam layer, characterized in that the device includes an attractant layer and a magnetic layer, one of the layers included in the vacuum gripper body and the other layer included in the foam layer, wherein the device include a series of air ducts extending at least through the foam layer, the magnetic layer and the attractant layer.
An environmentally friendly water transfer printing method, comprising: Applying water-based primer to a surface of a subject; Using a modified water-based ink multi-color printing pattern comprised within a water transfer printing membrane comprising a water-soluble film, and a metal nanoparticle layer, the modified water-based ink multi-color printing pattern formed on the water-soluble film, and the metal nanoparticle layer formed on the modified multi-color water-based ink printing pattern, so that the water-soluble film absorbs water and dissolves to swell the modified water-based ink to a transferable state, and the water-based primer is combined with the modified water-based ink to attach a pattern to the surface of the object. Applying water-based primer to a surface of a subject; Using a modified water-based ink multi-color printing pattern comprised within a water transfer printing membrane comprising a water-soluble film, and a metal nanoparticle layer, the modified water-based ink multi-color printing pattern formed on the water-soluble film, and the metal nanoparticle layer formed on the modified multi-color water-based ink printing pattern, so that the water-soluble film absorbs water and dissolves to swell the modified water-based ink to a transferable state, and the water-based primer is combined with the modified water-based ink to attach a pattern to the surface of the object.
A print system , comprising: a conveying means to transport a print media ; and a generate engine to generate an emulated encoder signal at a frequency based on a determined speed of the print media; the print system characterized by comprising: a count engine to determine an encoder count by determining a total number of ticks generated by the emulated encoder signal during a time interval between first and second top of form, TOF marks on the print media passing a sensor that is to sense the TOF marks; a determine engine to determine a difference between the encoder count and a theoretical encoder count, wherein the theoretical encoder count is based on a printing resolution and a specified distance between the first and second TOF marks; an adjust engine to adjust the frequency of the emulated encoder signal to mitigate at least some of the difference between the encoder count and the theoretical encoder count; wherein the generate engine is further to generate the emulated encoder signal at the adjusted frequency. a conveying means to transport a print media ; and a generate engine to generate an emulated encoder signal at a frequency based on a determined speed of the print media; the print system characterized by comprising: a count engine to determine an encoder count by determining a total number of ticks generated by the emulated encoder signal during a time interval between first and second top of form, TOF marks on the print media passing a sensor that is to sense the TOF marks; a determine engine to determine a difference between the encoder count and a theoretical encoder count, wherein the theoretical encoder count is based on a printing resolution and a specified distance between the first and second TOF marks; an adjust engine to adjust the frequency of the emulated encoder signal to mitigate at least some of the difference between the encoder count and the theoretical encoder count; wherein the generate engine is further to generate the emulated encoder signal at the adjusted frequency. a count engine to determine an encoder count by determining a total number of ticks generated by the emulated encoder signal during a time interval between first and second top of form, TOF marks on the print media passing a sensor that is to sense the TOF marks; a determine engine to determine a difference between the encoder count and a theoretical encoder count, wherein the theoretical encoder count is based on a printing resolution and a specified distance between the first and second TOF marks; an adjust engine to adjust the frequency of the emulated encoder signal to mitigate at least some of the difference between the encoder count and the theoretical encoder count; wherein the generate engine is further to generate the emulated encoder signal at the adjusted frequency.
A fluid regulator , comprising: a valve body having an inlet and an outlet and defining a fluid flow passageway between the inlet and the outlet; a seat ring disposed within the fluid flow passageway ; an actuator coupled to the valve body , wherein the actuator defines a first chamber and a second chamber ; a flow control member disposed within the fluid flow passageway , the flow control member having a metallic sealing surface that is movable relative to an elastomeric seating surface of the seat ring , the metallic sealing surface being coupled to a disk holder via a disk retainer ; a valve stem including a pathway fluidly coupling a first side of the flow control member and a second side of the flow control member, the valve stem configured to operatively couple the flow control member to the diaphragm of the actuator , the flow control member being threadably coupled to a first end of the valve stem via the disk retainer, and a second end of the valve stem opposite the first end directly coupled to the diaphragm of the actuator via a diaphragm plate , wherein the first side of the flow control member is in fluid communication with the inlet and the second side of the flow control member is in fluid communication with a spring chamber , thereby providing a pressure-balanced trim assembly; and a biasing element disposed within the spring chamber to bias the flow control member towards the seat ring. a valve body having an inlet and an outlet and defining a fluid flow passageway between the inlet and the outlet; a seat ring disposed within the fluid flow passageway ; an actuator coupled to the valve body , wherein the actuator defines a first chamber and a second chamber ; a flow control member disposed within the fluid flow passageway , the flow control member having a metallic sealing surface that is movable relative to an elastomeric seating surface of the seat ring , the metallic sealing surface being coupled to a disk holder via a disk retainer ; a valve stem including a pathway fluidly coupling a first side of the flow control member and a second side of the flow control member, the valve stem configured to operatively couple the flow control member to the diaphragm of the actuator , the flow control member being threadably coupled to a first end of the valve stem via the disk retainer, and a second end of the valve stem opposite the first end directly coupled to the diaphragm of the actuator via a diaphragm plate , wherein the first side of the flow control member is in fluid communication with the inlet and the second side of the flow control member is in fluid communication with a spring chamber , thereby providing a pressure-balanced trim assembly; and a biasing element disposed within the spring chamber to bias the flow control member towards the seat ring.
An imaging system comprising: a first lens and a second lens ; at least one light valve ; and an image sensor in optical communication with the light valve ; wherein the first lens is in optical communication with the light valve ; wherein the second lens is in optical communication with the light valve ; characterized in that the light valve is a switchable reflective polarizer and is configured to have a first polarization state and a second polarization state; wherein the first polarization state allows light to pass through the switchable reflective polarizer; and wherein the second polarization state reflects light that strikes the switchable reflective polarizer. a first lens and a second lens ; at least one light valve ; and an image sensor in optical communication with the light valve ; wherein the first lens is in optical communication with the light valve ; wherein the second lens is in optical communication with the light valve ; characterized in that the light valve is a switchable reflective polarizer and is configured to have a first polarization state and a second polarization state; wherein the first polarization state allows light to pass through the switchable reflective polarizer; and wherein the second polarization state reflects light that strikes the switchable reflective polarizer.
A method of determining whether a light control sheet is functioning normally, wherein the light control sheet includes a light control layer and two transparent electrode layers sandwiching the light control layer, and has a configuration capable of changing a light-shielding ratio prescribed by JIS L 1055:2009, method A, determining how much light passes through the light control sheet from a first space to illuminate a second space, without distinguishing between parallel light and diffused light, by applying a voltage to the two transparent electrode layers, the method comprising: determining whether the light control sheet is functioning normally, wherein a requirement for determining the light control sheet to be functioning normally is that, under conditions in which an applied voltage applied to the transparent electrode layers is changed, absolute values of one or more target change ratios have a maximum value of 0.7 [%/V] or more, each target change ratio being a change ratio of a light-shielding ratio [%] with respect to the applied voltage [V] in a target range, the target range being a range of the applied voltage in which the light-shielding ratio of the light control sheet changes by 10%. determining whether the light control sheet is functioning normally, wherein a requirement for determining the light control sheet to be functioning normally is that, under conditions in which an applied voltage applied to the transparent electrode layers is changed, absolute values of one or more target change ratios have a maximum value of 0.7 [%/V] or more, each target change ratio being a change ratio of a light-shielding ratio [%] with respect to the applied voltage [V] in a target range, the target range being a range of the applied voltage in which the light-shielding ratio of the light control sheet changes by 10%.