mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for fusing bones of the human body, comprising: a bone plate having one or more fixation apertures and an insert aperture ; a fastener fixation insert having an aperture with a tapered, counter-bored, or countersunk internal shape configured to direct a fastener at a right angle relative to the bone plate and an oblique fastener insert comprising an aperture with a tapered, counter-bored, or countersunk internal shape configured to receive a fastener, such that the fastener is directed at an oblique angle relative to a plane of the bone plate; and the insert aperture comprising a countersink edge and having a perimeter shape comprising a round portion and a flat portion ; and one or more fixation screws configured to be received into the one or more fixation apertures and driven into the bones so as to fixate or compress the bones, wherein one fixation aperture is configured to direct at least one fixation screw at a right angle relative to the bone plate; and characterized in that : the bone plate comprises a longitudinal rib providing structural strength to the bone plate, and a multiplicity of lateral ribs or a multiplicity of radial ribs configured to minimize contact between the implant and the bone. a bone plate having one or more fixation apertures and an insert aperture ; a fastener fixation insert having an aperture with a tapered, counter-bored, or countersunk internal shape configured to direct a fastener at a right angle relative to the bone plate and an oblique fastener insert comprising an aperture with a tapered, counter-bored, or countersunk internal shape configured to receive a fastener, such that the fastener is directed at an oblique angle relative to a plane of the bone plate; and the insert aperture comprising a countersink edge and having a perimeter shape comprising a round portion and a flat portion ; and one or more fixation screws configured to be received into the one or more fixation apertures and driven into the bones so as to fixate or compress the bones, wherein one fixation aperture is configured to direct at least one fixation screw at a right angle relative to the bone plate; and
A crystalline form of sotorasib (Form A) according to the chemical structure as depicted in Formula (A) characterized by having a powder X-ray diffractogram comprising reflections at 2-Theta angles of (6.4 ± 0.2)°, (12.3 ± 0.2)°, (16.6 ± 0.2)° and (17.8 ± 0.2)°, when measured at a temperature in the range of from 20 to 30°C with Cu-Kalpha 1,2 radiation having a wavelength of 0.15419 nm.
Rolling bearing having at least one inner ring and at least one outer ring, wherein a number of rolling elements are arranged between the bearing rings, wherein the rolling elements are held by a cage , wherein the cage consists of a number of cage segments (4', 4", 4"'), wherein each cage segment (4', 4", 4"') touches two rolling elements at at least two contact faces adapted preferably to the shape of the rolling element , wherein at least one fastening element is arranged on each cage segment (4', 4", 4"') and wherein the cage segments (4', 4", 4"') are able to be connected at least temporarily via a coupling element , for which purpose the coupling element is brought into engagement with the fastening elements , wherein each cage segment (4', 4", 4"') has, in at least one axial end region, a side plate (11', 11", 11'''; 12', 12", 12"') that partially covers the end side of the rolling element , wherein two side plates (11', 11", 11"'; 12', 12", 12"') that follow one another in the circumferential direction (U) can contact two adjacent cage segments (4', 4", 4"') at contact faces formed in a complementary manner to one another, wherein one of the contact faces that are formed in a complementary manner to one another has a convex shape and the other of the contact faces has a concave shape, wherein each side plate (11', 11", 11"'; 12', 12", 12"') of the cage segment (4', 4", 4"') has a contact face with a convex shape in one end region located in the circumferential direction (U) and a contact face with a concave shape in the other end region located in the circumferential direction (U), wherein the contact faces are located in the region of the axis (a) of the rolling element , characterized in that the convex shape is more strongly curved than the concave shape.
A process for extraction and separation of oxyresveratrol from the heartwood of Artocarpus lakoocha Roxb., said process comprising the steps of: (i) mixing Artocarpus lakoocha Roxb. powder with water at a temperature in the range of 30°C-70°C for 1 to 10 hours and filtering through filter paper to obtain a solution of the extract; (ii) subjecting the solution of the extract obtained in step (i) to membrane treatment in a two compartment membrane cell containing a nanofiltration membrane selected from Alpha cyclodextrin-polysulfone composite nanofiltration membrane, Beta cyclodextrin-polysulfone composite nanofiltration membrane or Gama cyclodextrin-polysulfone composite nanofiltration membrane by circulating through the said nanofiltration membrane using a peristaltic pump at a flow rate in the range of 42.50 ml/min to 107.14 ml/min; and (iii) collecting the oxyresveratrol at an interval of one hour from the permeate side of membrane. (i) mixing Artocarpus lakoocha Roxb. powder with water at a temperature in the range of 30°C-70°C for 1 to 10 hours and filtering through filter paper to obtain a solution of the extract; (ii) subjecting the solution of the extract obtained in step (i) to membrane treatment in a two compartment membrane cell containing a nanofiltration membrane selected from Alpha cyclodextrin-polysulfone composite nanofiltration membrane, Beta cyclodextrin-polysulfone composite nanofiltration membrane or Gama cyclodextrin-polysulfone composite nanofiltration membrane by circulating through the said nanofiltration membrane using a peristaltic pump at a flow rate in the range of 42.50 ml/min to 107.14 ml/min; and (iii) collecting the oxyresveratrol at an interval of one hour from the permeate side of membrane.
A temporary fixing composition comprising: a first organic component having a viscosity of less than 70 mPa•s at 25°C and a boiling point of 200°C or lower; and a second organic component having a viscosity of 70 mPa•s or greater at 25°C and a boiling point of 210°C or higher, wherein the temporary fixing composition is used to temporarily fix a first bonding target material and a second bonding target material to each other before the first bonding target material and the second bonding target material are bonded to each other, wherein the first organic component is selected among at least one of the followings: polyhydric alcohols, polyhydric alcohol alkyl ethers, polyhydric alcohol aryl ethers, esters, nitrogen-containing heterocyclic compounds, amides, amines, saturated hydrocarbons, terpene alcohols, ketones, and carboxylic acids; wherein the second organic component is selected among at least one of the followings: glycerin; 1,2,4-butanetriol; 4-(1'-acetoxy-1'-methylethyl)-cyclohexanol acetate; isobornyl cyclohexanol; borneol, 2,4,6-triisopropyl-1,3,5-trioxane ; trimethylolpropane ; myristyl alcohol ; 2,4-diethyl-1,5-pentanediol; and wherein the temporary fixing composition is substantially free of an organic polymer compound., and wherein the viscosity is measured by the method indicated in the description. a first organic component having a viscosity of less than 70 mPa•s at 25°C and a boiling point of 200°C or lower; and a second organic component having a viscosity of 70 mPa•s or greater at 25°C and a boiling point of 210°C or higher,
Device for combined signal transmission or for combined signal transmission and energy transmission, in particular to a portable electronic terminal device , wherein the device comprises at least one winding structure for generating a first electromagnetic field so as to transmit energy or to transmit signals, wherein the device also comprises at least one antenna structure for transmitting further signals, wherein the antenna structure comprises a first part structure and a second part structure , wherein the first part structure is embodied and/or arranged opposite the second part structure in such a manner that signals can be received and transmitted in a first frequency range by means of the antenna structure, wherein at least the first part structure is arranged adjacent to the at least one winding structure in a projection plane that is oriented perpendicular to a central axis of the winding structure , wherein the central axis of the winding structure is a symmetrical axis of the winding structure , characterized in that the device also comprises a damping structure which is embodied so as to damp the electrical field that is generated by means of the winding structure , wherein the damping structure overlaps at least in part the at least one winding structure in the projection plane .
A burner system comprising: a combustion tube including inside and outside helical fins forming opposing spiral pathways, the opposing spiral pathways including a first spiral pathway for combustion gases and a second spiral pathway for products of combustion; a combustion nozzle coupled to the combustion tube ; a gas tube running axially into the combustion tube ; and a staging gas nozzle coupled to the gas tube , the staging gas nozzle including one or more exit holes into the combustion tube and an axial gas staging tube extending into the combustion nozzle to stage combustion, wherein the staging gas nozzle is configured to inject gaseous fuel into a spiral flow of preheated air flowing through the first spiral pathway and the staging gas nozzle is positioned such that the gaseous fuel mixes with the preheated air flowing through the first spiral pathway to form a fuel-air mixture that continues to travel along the first spiral pathway before moving into the combustion nozzle. a combustion tube including inside and outside helical fins forming opposing spiral pathways, the opposing spiral pathways including a first spiral pathway for combustion gases and a second spiral pathway for products of combustion; a combustion nozzle coupled to the combustion tube ; a gas tube running axially into the combustion tube ; and a staging gas nozzle coupled to the gas tube , the staging gas nozzle including one or more exit holes into the combustion tube and an axial gas staging tube extending into the combustion nozzle to stage combustion, wherein the staging gas nozzle is configured to inject gaseous fuel into a spiral flow of preheated air flowing through the first spiral pathway and the staging gas nozzle is positioned such that the gaseous fuel mixes with the preheated air flowing through the first spiral pathway to form a fuel-air mixture that continues to travel along the first spiral pathway before moving into the combustion nozzle.
A wedge system for use in a dental restoration procedure for a posterior tooth , comprising: a first wedge adapted to be disposed in an approximal space between the posterior tooth and a tooth adjacent the posterior tooth, the first wedge including a body , a first arm extending from the body , a second arm extending from the body , and a gap formed between the first arm and the second arm ; and a second wedge including a body and an arm extending from the body, wherein at least a portion of the arm of the second wedge is arranged to be disposed in the gap of the first wedge to removably secure the second wedge to the first wedge in a state where the first wedge is disposed in the approximal space between the posterior tooth and the tooth adjacent the posterior tooth, such that the second wedge is also disposed in the approximal space between the posterior tooth and the tooth adjacent the posterior tooth, wherein the first arm extends from the body along a first axis and the second arm extends from the body along a second axis that is angled relative to the first axis, wherein when the arm of the second wedge is disposed in the gap of the first wedge , the arm of the second wedge is adapted to force the first and second arms of the first wedge away from one another, and wherein the first wedge further comprises a handle extending outward from the body , characterized by a wing connecting the first arm and the second arm . a first wedge adapted to be disposed in an approximal space between the posterior tooth and a tooth adjacent the posterior tooth, the first wedge including a body , a first arm extending from the body , a second arm extending from the body , and a gap formed between the first arm and the second arm ; and a second wedge including a body and an arm extending from the body, wherein at least a portion of the arm of the second wedge is arranged to be disposed in the gap of the first wedge to removably secure the second wedge to the first wedge in a state where the first wedge is disposed in the approximal space between the posterior tooth and the tooth adjacent the posterior tooth, such that the second wedge is also disposed in the approximal space between the posterior tooth and the tooth adjacent the posterior tooth, wherein the first arm extends from the body along a first axis and the second arm extends from the body along a second axis that is angled relative to the first axis, wherein when the arm of the second wedge is disposed in the gap of the first wedge , the arm of the second wedge is adapted to force the first and second arms of the first wedge away from one another, and wherein the first wedge further comprises a handle extending outward from the body , characterized by a wing connecting the first arm and the second arm .
A spun birefringent fiber having a local linear birefringence B ≠ 0, wherein a relative temperature dependence (1/B)·dB/dT of said birefringence is larger than zero for at least one wavelength λ and for least one temperature T between -60°C and 120°C.
A capacitance-based blade tip clearance , BTC, probe , comprising: a housing (302; 402) having a body (307; 407); a hard lead comprising a hard shield (502; 402), a driven guard , and a lead wire ; and a sensor element (324; 424) disposed within the housing (302; 402) and coupled to the lead wire , wherein the sensor element (324; 424) comprises a sensor head (326; 426) having a first vertex (602a; 602g), a second vertex (604a; 604g) and a third vertex (606a; 606g), characterised by the housing having a neck (310; 410) extending radially from the body (307; 407) coupled to the hard lead ; and a cap (304; 405) coupled at a top surface of the body (307; 407) enclosing an interior volume of the housing (302; 402), wherein each of the first vertex , the second vertex , and the third vertex comprise an interior angle defining a triangular head , or wherein the sensor head (326; 426) further comprises a fourth vertex , a fifth vertex , and a sixth vertex defining a cranked arrow head , wherein the fifth vertex and the sixth define an area of relatively increased or decreased X-Z slope along a perimeter of the cranked arrow head between each of their respective adjacent vertexes , wherein the X and Z axes define a plane parallel to the sensor head . a housing (302; 402) having a body (307; 407); a hard lead comprising a hard shield (502; 402), a driven guard , and a lead wire ; and a sensor element (324; 424) disposed within the housing (302; 402) and coupled to the lead wire , wherein the sensor element (324; 424) comprises a sensor head (326; 426) having a first vertex (602a; 602g), a second vertex (604a; 604g) and a third vertex (606a; 606g), characterised by the housing having a neck (310; 410) extending radially from the body (307; 407) coupled to the hard lead ; and a cap (304; 405) coupled at a top surface of the body (307; 407) enclosing an interior volume of the housing (302; 402), wherein each of the first vertex , the second vertex , and the third vertex comprise an interior angle defining a triangular head , or wherein the sensor head (326; 426) further comprises a fourth vertex , a fifth vertex , and a sixth vertex defining a cranked arrow head , wherein the fifth vertex and the sixth define an area of relatively increased or decreased X-Z slope along a perimeter of the cranked arrow head between each of their respective adjacent vertexes , wherein the X and Z axes define a plane parallel to the sensor head .
A method for wireless communication, carried out by a user equipment, UE, , comprising identifying a slot format for normal cyclic prefix, NCP, transmissions between the UE and a base station , the slot format indicating a first transmission direction for each NCP symbol of a set of NCP symbols within a slot; determining , according to the identified slot format for NCP transmissions and based at least in part on a transmission direction of at least one NCP symbol that fully or partially overlaps in a time domain with a corresponding extended cyclic prefix, ECP, symbol , a second transmission direction of the corresponding ECP symbol , wherein a starting and ending time of each NCP symbol is mapped to each ECP symbol of a set of ECP symbols in the time domain, wherein the determining comprises: identifying a subset of the NCP symbols that overlap in the time domain with a first ECP symbol of the set of ECP symbols; and determining that the first ECP symbol has a flexible transmission direction when at least one of the NCP symbols of the subset of the NCP symbols has a flexible transmission direction; and communicating with the base station based at least in part on the determining. identifying a slot format for normal cyclic prefix, NCP, transmissions between the UE and a base station , the slot format indicating a first transmission direction for each NCP symbol of a set of NCP symbols within a slot; determining , according to the identified slot format for NCP transmissions and based at least in part on a transmission direction of at least one NCP symbol that fully or partially overlaps in a time domain with a corresponding extended cyclic prefix, ECP, symbol , a second transmission direction of the corresponding ECP symbol , wherein a starting and ending time of each NCP symbol is mapped to each ECP symbol of a set of ECP symbols in the time domain, wherein the determining comprises: identifying a subset of the NCP symbols that overlap in the time domain with a first ECP symbol of the set of ECP symbols; and determining that the first ECP symbol has a flexible transmission direction when at least one of the NCP symbols of the subset of the NCP symbols has a flexible transmission direction; and identifying a subset of the NCP symbols that overlap in the time domain with a first ECP symbol of the set of ECP symbols; and determining that the first ECP symbol has a flexible transmission direction when at least one of the NCP symbols of the subset of the NCP symbols has a flexible transmission direction; and communicating with the base station based at least in part on the determining.
A process for the production of a lactose-free or a low-lactose milk product, the process comprising a) hydrolyzing the lactose in a milk raw material to provide a hydrolyzed milk raw material, b) ultrafiltrating (UF) the hydrolyzed milk raw material to concentrate proteins into an UF retentate and to obtain an UF permeate containing sugars, c) nanofiltrating (NF) the UF permeate to separate sugars into a NF retentate and minerals into a NF permeate, d) composing the lactose-free or low-lactose milk product having the desired composition and sweetness from the UF retentate obtained in step b) and the nanofiltration permeate obtained in step c), substantially without adding water and without adding a lactase enzyme to the composed milk product to hydrolyze any residual lactose in the product, e) if desired, concentrating the product obtained in step d) into a concentrate or a powder. a) hydrolyzing the lactose in a milk raw material to provide a hydrolyzed milk raw material, b) ultrafiltrating (UF) the hydrolyzed milk raw material to concentrate proteins into an UF retentate and to obtain an UF permeate containing sugars, c) nanofiltrating (NF) the UF permeate to separate sugars into a NF retentate and minerals into a NF permeate, d) composing the lactose-free or low-lactose milk product having the desired composition and sweetness from the UF retentate obtained in step b) and the nanofiltration permeate obtained in step c), substantially without adding water and without adding a lactase enzyme to the composed milk product to hydrolyze any residual lactose in the product, e) if desired, concentrating the product obtained in step d) into a concentrate or a powder.
A bispecific antibody specifically binding to human B cell maturation factor (BCMA) and CD3, wherein the bispecific antibody comprises a heavy chain and a light chain of an antibody specifically binding to BCMA, the heavy chain comprising a CDR1H of SEQ ID NO: 39, a CDR2H of SEQ ID NO: 49 and a CDR3H of SEQ ID NO: 59 and the light chain comprising a CDR1L of SEQ ID NO: 69, a CDR2L of SEQ ID NO:79 and a CDR3L of SEQ ID NO: 89.
An optical device comprising: a printed circuit board comprising an electronic image capture circuit , a lens holder comprising at least one optical lens , the lens holder being mounted on the printed circuit board so as to align, along the optical axis (O) of the device , the electronic image capture circuit and the optical lens ; a heating element arranged on the lens holder ; the heating element being electrically connected to the printed circuit board by at least one electrically conductive trace arranged on the lens holder and characterized in that the lens holder comprises a first insulating layer on which is arranged the electrically conductive trace and a second insulating layer covering the electrically conductive trace except for its electrical contact area . a printed circuit board comprising an electronic image capture circuit , a lens holder comprising at least one optical lens , the lens holder being mounted on the printed circuit board so as to align, along the optical axis (O) of the device , the electronic image capture circuit and the optical lens ; a heating element arranged on the lens holder ; the heating element being electrically connected to the printed circuit board by at least one electrically conductive trace arranged on the lens holder and characterized in that the lens holder comprises a first insulating layer on which is arranged the electrically conductive trace and a second insulating layer covering the electrically conductive trace except for its electrical contact area .