mhurhangee/patent-ind-claim-en huggingface dataset:
A hair styling device comprising a main body and a removable powered accessory, the main body being centered about a central axis , said main body having an outlet portion on one end for receiving the removable powered accessory , said main body having a control portion on an end opposite said outlet portion , an inlet portion located between said control portion and said outlet portion , said inlet portion having a plurality of annular inlet ports spaced from and encircling said central axis , said main body having a brushless motor for moving air from said inlet portion to an outlet on said outlet portion, and a heating element for heating said air from said brushless motor , said outlet portion having an accessory connector for supplying power to said removable powered accessory controlled by said control portion ; a DC power source spaced from said main body and a multi-conductor cord extending between said DC power source and said main body , an AC plug electrically connected to said DC power source and said multi-conductor cord , said multi-conductor cord for supplying DC power from said DC power source and AC power from said AC plug to said control portion ; and said removable powered accessory connectable to said outlet portion , said removable powered accessory having an electrical connector connected to said accessory connector when said removable powered accessory is connected to said outlet portion , said removable powered accessory having an accessory motor . a DC power source spaced from said main body and a multi-conductor cord extending between said DC power source and said main body , an AC plug electrically connected to said DC power source and said multi-conductor cord , said multi-conductor cord for supplying DC power from said DC power source and AC power from said AC plug to said control portion ; and said removable powered accessory connectable to said outlet portion , said removable powered accessory having an electrical connector connected to said accessory connector when said removable powered accessory is connected to said outlet portion , said removable powered accessory having an accessory motor .
A method for wireless communication by a user equipment, UE, comprising: performing an initial access procedure within an initial access bandwidth to obtain access to a cell, the initial access bandwidth comprising first control channel resources; receiving , after the initial access procedure, a configuration of a downlink bandwidth part for communicating with the cell and a control channel configuration comprising one or more fields indicating that the downlink bandwidth part includes the initial access bandwidth; and monitoring for control information within the downlink bandwidth part using second control channel resources that correspond to the first control channel resources, wherein the monitoring is based at least in part on a determination that the downlink bandwidth part includes the initial access bandwidth. performing an initial access procedure within an initial access bandwidth to obtain access to a cell, the initial access bandwidth comprising first control channel resources; receiving , after the initial access procedure, a configuration of a downlink bandwidth part for communicating with the cell and a control channel configuration comprising one or more fields indicating that the downlink bandwidth part includes the initial access bandwidth; and monitoring for control information within the downlink bandwidth part using second control channel resources that correspond to the first control channel resources, wherein the monitoring is based at least in part on a determination that the downlink bandwidth part includes the initial access bandwidth.
A printer provided with a storing space for a paper roll having a core hole in the center comprising: a paper roll holder having a protrusion adapted to fit into the core hole of the paper roll, the paper roll holder being switchable between a protruded state that the protrusion protrudes into the storing space and a retracted state that the protrusion retracts from the storing space , and the paper roll holder being adapted to hold the paper roll (R) while the paper roll holder is in the protruded state; and a stopper adapted to engage with the paper roll holder while the paper roll holder is in the protruded state to prevent the protrusion from turning to a predetermined direction, wherein the paper roll holder moves when the paper roll holder is pushed by the paper roll (R) that is being set into the storing space , and the printer being characterized in that movement of the paper roll holder releases the engagement with the stopper to allow the protrusion to turn to the predetermined direction. a paper roll holder having a protrusion adapted to fit into the core hole of the paper roll, the paper roll holder being switchable between a protruded state that the protrusion protrudes into the storing space and a retracted state that the protrusion retracts from the storing space , and the paper roll holder being adapted to hold the paper roll (R) while the paper roll holder is in the protruded state; and a stopper adapted to engage with the paper roll holder while the paper roll holder is in the protruded state to prevent the protrusion from turning to a predetermined direction, wherein the paper roll holder moves when the paper roll holder is pushed by the paper roll (R) that is being set into the storing space , and the printer being characterized in that movement of the paper roll holder releases the engagement with the stopper to allow the protrusion to turn to the predetermined direction.
A method for further processing of a plurality of semi-finished glass tube products including an at least in sections performed thermal reshaping under the control of an electronic control device , with the steps: providing of the plurality of semi-finished glass tube products , wherein for each semi-finished glass tube product of the plurality of semi-finished glass tube products tube-specific data are provided; reading out of the tube-specific data (2-5; 30-31) for a respective semi-finished glass tube product under the control of the electronic control device ; and further processing of the plurality of semi-finished glass tube products including an at least in sections performed thermal reshaping; wherein at least one process parameter during the further processing of a respective semi-finished glass tube product of the plurality of semi-finished glass tube products including the at least in sections performed thermal reshaping is controlled by means of the electronic control device dependent on the tube-specific data (2-5; 30-31) for the respective semi-finished glass tube product , and the respective semi-finished glass tube product is labeled with at least one marking (3; 4), with the aid of which the tube-specific data for the respective semi-finished glass tube product are read out, wherein the at least one process parameter relates to process conditions during separating of subsections from a semi-finished glass tube product or the process conditions during the further processing of a subsection separated from the respective semi-finished glass tube product or process conditions during the thermal reshaping of the separated subsection. providing of the plurality of semi-finished glass tube products , wherein for each semi-finished glass tube product of the plurality of semi-finished glass tube products tube-specific data are provided; reading out of the tube-specific data (2-5; 30-31) for a respective semi-finished glass tube product under the control of the electronic control device ; and further processing of the plurality of semi-finished glass tube products including an at least in sections performed thermal reshaping; wherein at least one process parameter during the further processing of a respective semi-finished glass tube product of the plurality of semi-finished glass tube products including the at least in sections performed thermal reshaping is controlled by means of the electronic control device dependent on the tube-specific data (2-5; 30-31) for the respective semi-finished glass tube product , and the respective semi-finished glass tube product is labeled with at least one marking (3; 4), with the aid of which the tube-specific data for the respective semi-finished glass tube product are read out, wherein the at least one process parameter relates to process conditions during separating of subsections from a semi-finished glass tube product or the process conditions during the further processing of a subsection separated from the respective semi-finished glass tube product or process conditions during the thermal reshaping of the separated subsection.
System (1") for docking an aerostat (2") on a receiving structure comprising a receiving structure , a mooring cable and at least one unmanned aerial vehicle , characterized in that the unmanned aerial vehicle can be controlled in order to move between said aerostat (2") and said receiving structure while carrying a first end of the mooring cable the second end of which is fastened to said receiving structure and in order to fasten said first end to said aerostat (2"), so that this cable connects said aerostat (2") to said receiving structure ; the unmanned aerial vehicle being arranged to start from the receiving structure , and the unmanned aerial vehicle being arranged for being controlled to: (i) carry said first end of said mooring cable to the aerostat (2"), when the second end is fastened to said receiving structure ; and (ii) fasten said first end to said aerostat(2"). (i) carry said first end of said mooring cable to the aerostat (2"), when the second end is fastened to said receiving structure ; and (ii) fasten said first end to said aerostat(2").
A method of controlling the thermal balance of the reaction shaft of a suspension smelting furnace, comprising using a concentrate burner that comprises a pulverous solid matter supply device for feeding pulverous solid matter into the reaction shaft , and a gas supply device for feeding reaction gas into the reaction shaft , the method comprising feeding into the reaction shaft pulverous solid matter , and feeding reaction gas into the reaction shaft for mixing reaction gas with pulverous solid matter to form a mixture by powdery solid matter and reaction gas in the reaction shaft of the suspension smelting furnace , characterized in that endothermic material in the form of a liquid cooling agent is fed by the concentrate burner to constitute part of the mixture formed by powdery solid matter and reaction gas in the reaction shaft of the suspension smelting furnace , so that a mixture containing powdery solid matter , reaction gas and endothermic material in the form of a liquid cooling agent is formed in the reaction shaft of the suspension smelting furnace .
An optoelectronic semiconductor component based on silicon comprising: - a front side , - a first diode and a second diode , which are arranged downstream of one another in the direction away from the front side and which are electrically connected in series, such that the first diode is located closer to the front side than the second diode , and - an electrical tunnel contact between the first and the second diode , wherein the second diode comprises a diode layer of Si n Ge 1-n , where 0 ≤ n ≤ 1, characterized in that the first diode comprises a first partial layer of SiGeC, a second partial layer of SiGe and a third partial layer of SiGeC, and said partial layers follow one another directly in the direction away from the front side according to their numbering, such that the first and third partial layers are of (Si y Ge 1-y ) 1-x C x , whereas 0.05 ≤ x ≤ 0.5 or 0.25 ≤ x ≤ 0.75, and whereas 0 ≤ y ≤ 1, and the second partial layer is of Si z Ge 1-z , whereas 0 ≤ z ≤ 1. - a front side , - a first diode and a second diode , which are arranged downstream of one another in the direction away from the front side and which are electrically connected in series, such that the first diode is located closer to the front side than the second diode , and - an electrical tunnel contact between the first and the second diode , wherein the second diode comprises a diode layer of Si n Ge 1-n , where 0 ≤ n ≤ 1, characterized in that the first diode comprises a first partial layer of SiGeC, a second partial layer of SiGe and a third partial layer of SiGeC, and said partial layers follow one another directly in the direction away from the front side according to their numbering, such that the first and third partial layers are of (Si y Ge 1-y ) 1-x C x , whereas 0.05 ≤ x ≤ 0.5 or 0.25 ≤ x ≤ 0.75, and whereas 0 ≤ y ≤ 1, and the second partial layer is of Si z Ge 1-z , whereas 0 ≤ z ≤ 1.
A method for manufacturing a semiconductor, comprising: forming an underlayer by applying a layer of a composition and curing the layer, the composition comprising a semiconductor material and a solvent; forming a layer of a photoresist composition above the underlayer; curing the photoresist composition to form a photoresist layer; exposing the substrate coated with the photoresist layer; developing the exposed substrate to form a resist pattern; etching with the resist pattern as a mask; and processing the substrate, wherein the semiconductor material consists of a compound represented by formula : [Formula i] X-Y wherein X is a group represented by formula : wherein A is -OH, or -NH 2 , R 1 is hydrogen, -OH, -NH 2 , or a direct bond to a phenyl ring, R 1' is hydrogen, -OH, -NH 2 , or a direct bond to a phenyl ring, R 2 is hydrogen, -OH, -NH 2 , or a direct bond to a phenyl ring, R 2' is hydrogen, -OH, -NH 2 , or a direct bond to a phenyl ring, R 3 is hydrogen, -OH, -NH 2 , or a direct bond to a phenyl ring, R 3' is hydrogen, -OH, -NH 2 , or a direct bond to a phenyl ring, n 1 is 0, 1, or 2, n 2 is 0, 1, or 2, n 3 is 0, 1, or 2, m is 0, 1, 2, or 3, and; Y is an unsubstituted aromatic hydrocarbon ring or an aromatic hydrocarbon ring substituted by -OH or -NH 2 . forming an underlayer by applying a layer of a composition and curing the layer, the composition comprising a semiconductor material and a solvent; forming a layer of a photoresist composition above the underlayer; curing the photoresist composition to form a photoresist layer; exposing the substrate coated with the photoresist layer; developing the exposed substrate to form a resist pattern; etching with the resist pattern as a mask; and processing the substrate, A is -OH, or -NH 2 , R 1 is hydrogen, -OH, -NH 2 , or a direct bond to a phenyl ring, R 1' is hydrogen, -OH, -NH 2 , or a direct bond to a phenyl ring, R 2 is hydrogen, -OH, -NH 2 , or a direct bond to a phenyl ring, R 2' is hydrogen, -OH, -NH 2 , or a direct bond to a phenyl ring, R 3 is hydrogen, -OH, -NH 2 , or a direct bond to a phenyl ring, R 3' is hydrogen, -OH, -NH 2 , or a direct bond to a phenyl ring, n 1 is 0, 1, or 2, n 2 is 0, 1, or 2, n 3 is 0, 1, or 2, m is 0, 1, 2, or 3, and; Y is an unsubstituted aromatic hydrocarbon ring or an aromatic hydrocarbon ring substituted by -OH or -NH 2 .
A transmission with housing, wherein the housing has an upper housing part and a lower housing part between which a plane is arranged, wherein the upper housing part is placed on the lower housing part , wherein the upper housing part is arranged on a first side of the plane and the lower housing part on the other side of the plane, wherein the upper housing part is shell-shaped, wherein the upper housing part has a top wall which at least in part delimits the interior of the transmission, characterised in that at least one oil-conducting rib structure is arranged on the top wall , which structure is formed as an elevation or indentation , and in that a rib portion of the respective oil-conducting rib structure extends from a region of the top wall with a first amount of inclination to the plane to a region of the top wall with a second amount of inclination to the plane, the second amount being greater than the first amount.
A food-portioning device , comprising: an annular wall ; a hub ; and a plurality of dividing means extending from the hub to the annular wall so as to form a plurality of three-dimensional spaces between the dividing means, wherein the annular wall defines a peripheral boundary which, in cooperation with the plurality of dividing means, defines the plurality of three-dimensional spaces for defining food portion sizes; each space having an open top and an open bottom; at least one of the dividing means is attached to the hub and/or to the annular wall in a manner that does not allow that dividing means to rotate about the hub thereby defining a non-rotatable dividing means, characterised in that all other dividing means are attached to the hub in a manner that allows them to at least partially rotate about the hub relative to the non-rotatable dividing means and relative to an adjacent dividing means. an annular wall ; a hub ; and a plurality of dividing means extending from the hub to the annular wall so as to form a plurality of three-dimensional spaces between the dividing means, wherein the annular wall defines a peripheral boundary which, in cooperation with the plurality of dividing means, defines the plurality of three-dimensional spaces for defining food portion sizes; each space having an open top and an open bottom; at least one of the dividing means is attached to the hub and/or to the annular wall in a manner that does not allow that dividing means to rotate about the hub thereby defining a non-rotatable dividing means, characterised in that all other dividing means are attached to the hub in a manner that allows them to at least partially rotate about the hub relative to the non-rotatable dividing means and relative to an adjacent dividing means.
A method for a user equipment, UE, for reporting a master node, MN, failure, the method comprising: detecting a failure in a radio link to the MN; determining whether the UE is configured with a split signaling radio bearer, SRB; transmitting an MN failure report to the MN using a secondary node, SN, path of the split SRB after determining that the UE is configured with the split SRB; determining whether the UE is configured with an SRB type 3, SRB3, after determining that the UE is not configured with the split SRB; transmitting the MN failure report to the MN using the SRB3 after determining that the UE is configured with the SRB3; maintaining current measurement configurations received from the MN and the SN after determining that the radio link to the MN has failed; and continuing to perform measurements based on the current measurement configurations received from the MN and the SN. detecting a failure in a radio link to the MN; determining whether the UE is configured with a split signaling radio bearer, SRB; transmitting an MN failure report to the MN using a secondary node, SN, path of the split SRB after determining that the UE is configured with the split SRB; determining whether the UE is configured with an SRB type 3, SRB3, after determining that the UE is not configured with the split SRB; transmitting the MN failure report to the MN using the SRB3 after determining that the UE is configured with the SRB3; maintaining current measurement configurations received from the MN and the SN after determining that the radio link to the MN has failed; and continuing to perform measurements based on the current measurement configurations received from the MN and the SN.
An agent that is capable of decreasing expansion or proliferation of genetically engineered T cells expressing a chimeric antigen receptor (CAR) in a subject for use in a method of modulating activity of engineered T cells expressing a CAR in treating cancer, wherein the method comprises: administering the agent to the subject; wherein the subject is one in which the level, amount or concentration of a volumetric measure of tumor burden or an inflammatory marker in a sample from the subject is at or above a threshold level; wherein the sample is obtained from the subject prior to receiving administration of genetically engineered T cells expressing a CAR; wherein the volumetric measure is a sum of the products of diameters (SPD) and the threshold value is greater than or equal to 50 cm 2 ; wherein the inflammatory marker is lactate dehydrogenase (LDH) and the threshold value is greater than or equal to 500 units per liter; and wherein the agent is a steroid. administering the agent to the subject; wherein the subject is one in which the level, amount or concentration of a volumetric measure of tumor burden or an inflammatory marker in a sample from the subject is at or above a threshold level; wherein the sample is obtained from the subject prior to receiving administration of genetically engineered T cells expressing a CAR; wherein the volumetric measure is a sum of the products of diameters (SPD) and the threshold value is greater than or equal to 50 cm 2 ; wherein the inflammatory marker is lactate dehydrogenase (LDH) and the threshold value is greater than or equal to 500 units per liter; and wherein the agent is a steroid.
A seal arrangement comprising: a seal comprising an outer ring , a shoe , and an arm extending between the shoe and the outer ring , wherein the shoe is configured to move relative to the outer ring via the arm ; a seal ring adjacent the seal ; and a support plate disposed between the seal and the seal ring , characterised in that : the support plate is coupled to the shoe , and the support plate is configured to move together with the shoe in a radial direction relative to the seal ring , the support plate further comprising a first surface that rubs against seal ring in response to the radial movement between the support plate and seal ring ; and the shoe is coupled to the support plate via at least one of a weld , a solder, or a braze. a seal comprising an outer ring , a shoe , and an arm extending between the shoe and the outer ring , wherein the shoe is configured to move relative to the outer ring via the arm ; a seal ring adjacent the seal ; and a support plate disposed between the seal and the seal ring , characterised in that : the support plate is coupled to the shoe , and the support plate is configured to move together with the shoe in a radial direction relative to the seal ring , the support plate further comprising a first surface that rubs against seal ring in response to the radial movement between the support plate and seal ring ; and the shoe is coupled to the support plate via at least one of a weld , a solder, or a braze. the support plate is coupled to the shoe , and the support plate is configured to move together with the shoe in a radial direction relative to the seal ring , the support plate further comprising a first surface that rubs against seal ring in response to the radial movement between the support plate and seal ring ; and the shoe is coupled to the support plate via at least one of a weld , a solder, or a braze.