mhurhangee/patent-ind-claim-en huggingface dataset:
A battery module , comprising: a battery cell assembly , comprising at least two battery cells arranged along a third direction (z), wherein each of the battery cells comprises electrode terminals ; and a first busbar , comprising a main portion and two connecting portions , wherein the first busbar is set at an angle with respect to the third direction (z), the two connecting portions are connected to the electrode terminals of the two battery cells in an identical battery cell assembly respectively, the main portion is connected between the two connecting portions , a deformation inducing portion is disposed on the main portion , and the deformation inducing portion is configured to reduce at least a force required for deforming the main portion along a first direction (x), and the first direction (x) is parallel to a lateral surface of the battery cell and perpendicular to the third direction (z), wherein the lateral surface is a surface on which the electrode terminals are disposed; wherein the deformation inducing portion comprises a gap , and the gap runs through along a thickness direction of the main portion , the gap comprises two transverse grooves , and the two transverse grooves extend along a width direction of the first busbar and are spaced apart along a length direction of the first busbar . a battery cell assembly , comprising at least two battery cells arranged along a third direction (z), wherein each of the battery cells comprises electrode terminals ; and a first busbar , comprising a main portion and two connecting portions , wherein the first busbar is set at an angle with respect to the third direction (z), the two connecting portions are connected to the electrode terminals of the two battery cells in an identical battery cell assembly respectively, the main portion is connected between the two connecting portions , a deformation inducing portion is disposed on the main portion , and the deformation inducing portion is configured to reduce at least a force required for deforming the main portion along a first direction (x), and the first direction (x) is parallel to a lateral surface of the battery cell and perpendicular to the third direction (z), wherein the lateral surface is a surface on which the electrode terminals are disposed; wherein the deformation inducing portion comprises a gap , and the gap runs through along a thickness direction of the main portion , the gap comprises two transverse grooves , and the two transverse grooves extend along a width direction of the first busbar and are spaced apart along a length direction of the first busbar .
Connecting arrangement for a cooking zone arrangement with a cooking hob and at least one air cleaning device arranged below the cooking hob , wherein the connecting arrangement comprises at least one connecting element , at least one connecting piece and at least one adapter , wherein the connecting element is mounted in the adapter so as to be vertically displaceable and is arranged in the connecting piece so as to be mechanically releasable, wherein the cooking hob can be connected to the air cleaning device by means of the connecting element in such a way that air can be conducted from the cooking hob via the connecting element to the air cleaning device , wherein the connecting element has at least one handle element for pulling out the connecting element by a user, characterized in that the connecting element has a first end section which is at the front in the insertion direction of the connecting element and whose end face assigned to the latter can adjoin the surface of the cooking hob and which can be arranged in a through-opening of the cooking hob in a mechanically releasable manner, and wherein the connecting element has a second end section which is at the rear in the insertion direction of the connecting element and which can be mounted in the air cleaning device in a vertically displaceable manner.
Method for determining the contact angle (α) of a rolling element bearing comprising an inner ring , an outer ring and a plurality, P, of rolling elements interposed between the inner ring and the outer ring , characterized in that said method comprises the step of determining the relative speed of P-1 or fewer of said plurality, P, of rolling elements with respect to the inner ring and/or the outer ring and determining the contact angle (α) of said rolling element bearing therefrom as said outer ring or said inner ring rotates through less than one revolution.
A device comprising: a light source for providing a pulsed incident light beam for generating laser induced optical breakdown of hair or skin tissue; an adjustable focusing system for focusing the incident light beam into a focal spot in the hair or skin tissue; a scanning system for scanning the focal spot; and an electrically adjustable lens system arranged in the optical path before the adjustable focusing system for providing compensation for aberration in the adjustable focusing system, wherein the adjustable lens system is provided at the input to the scanning system . a light source for providing a pulsed incident light beam for generating laser induced optical breakdown of hair or skin tissue; an adjustable focusing system for focusing the incident light beam into a focal spot in the hair or skin tissue; a scanning system for scanning the focal spot; and an electrically adjustable lens system arranged in the optical path before the adjustable focusing system for providing compensation for aberration in the adjustable focusing system, wherein the adjustable lens system is provided at the input to the scanning system .
A method for manufacturing an arrangement for the transport of media, comprising a base body formed as a blow-molded part and at least one functional element , in which a preform consisting of polymeric material and at least one functional element are provided and arranged in a blow mold , wherein the base body is formed from the preform, wherein the preform bears against the functional element during forming, wherein the blow mold has a first mold element and a second mold element , wherein the base body is formed from the preform between the first mold element and the second mold element , wherein the first mold element and the second mold element bear with elastic pretension against the functional element during blow molding, wherein the first mold element and the second mold element bear against the functional element in such a way that excess material produced from the preform in the area of the functional element during blow molding can be removed.
A system for monitoring overheating comprising: an optical fiber overheat detection instrument loop, the system being characterised in an optical fiber overheat detection testing apparatus for testing the overheat detection instrument loop, the optical fiber overheat detection testing apparatus comprising: an optical fiber having a first end and a second end , the optical fiber characterized by having a predetermined length associated with a predetermined attenuation based on said overheat detection instrument loop; a first interrupt disposed equidistant between the first end and the second end defining a first half of the optical fiber and a second half of the optical fiber , the first half and the second half having equal length, the first interrupt having a first actuator operable by a first electric current to attenuate light wave traversal of the optical fiber ; and a test controller configured to perform a test routine, wherein, during the test, the controller operates the first interrupt so as to generate a signal attenuation in the optical fiber, receives a response from an optical fiber operations controller indicative of a signal attenuation, and compares the attenuation against a threshold level. an optical fiber having a first end and a second end , the optical fiber characterized by having a predetermined length associated with a predetermined attenuation based on said overheat detection instrument loop; a first interrupt disposed equidistant between the first end and the second end defining a first half of the optical fiber and a second half of the optical fiber , the first half and the second half having equal length, the first interrupt having a first actuator operable by a first electric current to attenuate light wave traversal of the optical fiber ; and a test controller configured to perform a test routine, wherein, during the test, the controller operates the first interrupt so as to generate a signal attenuation in the optical fiber, receives a response from an optical fiber operations controller indicative of a signal attenuation, and compares the attenuation against a threshold level.
Device for conveying powder , comprising: • a container for the powder defining a surface in the container ; and • a suction means having a suction opening for sucking in the powder from the surface ; characterized by • a balance for continuously weighing a mass (M) of the powder in the container during suction of the powder , wherein the container with the powder stands on the balance ; • a moving means for generating a relative movement in an X-coordinate direction (X) and a Y-coordinate direction (Y) between the suction opening and the surface of the powder in the container during the suction of the powder and for vertically tracking the suction opening in a Z-coordinate direction (Z), wherein a speed (V) of the relative movement is variable on the basis of a measurement and control electronics in such a way that a predetermined mass flow dM dt of the powder prevails when the powder is conveyed; • wherein the balance is connected to the measurement and control electronics for controlling the moving means in such a way that the predetermined mass flow dM dt of the powder from the surface of the powder to a surface of a substrate is set or maintained via the speed (V) of the relative movement . • a container for the powder defining a surface in the container ; and • a suction means having a suction opening for sucking in the powder from the surface ; characterized by • a balance for continuously weighing a mass (M) of the powder in the container during suction of the powder , wherein the container with the powder stands on the balance ; • a moving means for generating a relative movement in an X-coordinate direction (X) and a Y-coordinate direction (Y) between the suction opening and the surface of the powder in the container during the suction of the powder and for vertically tracking the suction opening in a Z-coordinate direction (Z), wherein a speed (V) of the relative movement is variable on the basis of a measurement and control electronics in such a way that a predetermined mass flow dM dt of the powder prevails when the powder is conveyed; • wherein the balance is connected to the measurement and control electronics for controlling the moving means in such a way that the predetermined mass flow dM dt of the powder from the surface of the powder to a surface of a substrate is set or maintained via the speed (V) of the relative movement .
Device comprising: • an aircraft wing ; • at least one jet engine with high bypass ratio attached to said wing , suitable for emitting a jet intercepted exclusively by a first portion of the trailing edge of said wing, the angles with orientation α being defined by a vector following the direction of said jet and by a vector following the tangent at a point of said first portion of the trailing edge and oriented towards the wing tip of said wing, and the angles with orientation γ being defined by a vector following the direction of a said jet and a vector following the tangent at a point of said trailing edge not belonging to said first portion of the trailing edge and oriented towards the wing tip of said wing, characterised in that : • the range formed by the set of angles with orientation α, is included within a range of angles delimited by 5° and 65°, • the average over the length of said trailing edge of the angles with orientation γ is at least 10° greater than the average of the angles α on the length of said first portion of the trailing edge. • an aircraft wing ; • at least one jet engine with high bypass ratio attached to said wing , suitable for emitting a jet intercepted exclusively by a first portion of the trailing edge of said wing, the angles with orientation α being defined by a vector following the direction of said jet and by a vector following the tangent at a point of said first portion of the trailing edge and oriented towards the wing tip of said wing, and the angles with orientation γ being defined by a vector following the direction of a said jet and a vector following the tangent at a point of said trailing edge not belonging to said first portion of the trailing edge and oriented towards the wing tip of said wing, • the range formed by the set of angles with orientation α, is included within a range of angles delimited by 5° and 65°, • the average over the length of said trailing edge of the angles with orientation γ is at least 10° greater than the average of the angles α on the length of said first portion of the trailing edge.
A polymer blend comprising: (i) one or more first polymers each independently having a weight-average molecular weight of 35,000 to 100,000 g/mol measured in a conventional manner with gel permeation chromatography and polyacrylic acid standards and each independently comprising polymerized units of (a) 22 to 80 wt % of one or more monoethylenically unsaturated C3-C6 carboxylic acid monomers, and (b) 20 to 78 wt % of one or more C1-C12 alkyl (meth)acrylate monomers; and (ii) one or more second polymers each independently having a weight-average molecular weight of between 2,000 and 35,000 g/mol measured in a conventional manner with gel permeation chromatography and polyacrylic acid standards and each independently comprising polymerized units of 50 to 100 wt % of one or more monoethylenically unsaturated C3-C6 carboxylic acid monomers, wherein component (i) comprises from 1 wt % to 50 wt % based on the total weight of (i) and (ii), wherein the polymer blend is in granular form, and wherein one or more polymers of the polymer blend is at least partially neutralized. (i) one or more first polymers each independently having a weight-average molecular weight of 35,000 to 100,000 g/mol measured in a conventional manner with gel permeation chromatography and polyacrylic acid standards and each independently comprising polymerized units of (a) 22 to 80 wt % of one or more monoethylenically unsaturated C3-C6 carboxylic acid monomers, and (b) 20 to 78 wt % of one or more C1-C12 alkyl (meth)acrylate monomers; and (a) 22 to 80 wt % of one or more monoethylenically unsaturated C3-C6 carboxylic acid monomers, and (b) 20 to 78 wt % of one or more C1-C12 alkyl (meth)acrylate monomers; and (ii) one or more second polymers each independently having a weight-average molecular weight of between 2,000 and 35,000 g/mol measured in a conventional manner with gel permeation chromatography and polyacrylic acid standards and each independently comprising polymerized units of 50 to 100 wt % of one or more monoethylenically unsaturated C3-C6 carboxylic acid monomers,
An electric motor formed as an internal rotor motor, for driving a fan having a stator , a rotor , a drive shaft , motor electronics disposed on a first axial side of the stator , a first cooling impeller which is associated with the motor electronics and disposed on the first axial side of the stator on the drive shaft and generates a first cooling air flow at least to the motor electronics during operation of the electric motor , and a second cooling impeller which is disposed immediately adjacent to windings of the stator on a second axial side of the stator opposite the first axial side and has impeller blades generating a second cooling air flow at least in the axial direction along the stator during operation of the electric motor , wherein a bearing of the drive shaft is provided in the axial direction adjacent to the second cooling impeller , wherein the bearing comprises at least one drive shaft bearing integrated in an end shield , and wherein the end shield extends in the radial direction beyond the stator , characterized in that a circumferential outlet gap is formed in the axial direction between the end shield and the laminated cores of the stator , via which the second cooling air flow can be conveyed radially outwards during operation of the electric motor . a stator , a rotor , a drive shaft , motor electronics disposed on a first axial side of the stator , a first cooling impeller which is associated with the motor electronics and disposed on the first axial side of the stator on the drive shaft and generates a first cooling air flow at least to the motor electronics during operation of the electric motor , and a second cooling impeller which is disposed immediately adjacent to windings of the stator on a second axial side of the stator opposite the first axial side and has impeller blades generating a second cooling air flow at least in the axial direction along the stator during operation of the electric motor , wherein a bearing of the drive shaft is provided in the axial direction adjacent to the second cooling impeller , wherein the bearing comprises at least one drive shaft bearing integrated in an end shield , and wherein the end shield extends in the radial direction beyond the stator , characterized in that a circumferential outlet gap is formed in the axial direction between the end shield and the laminated cores of the stator , via which the second cooling air flow can be conveyed radially outwards during operation of the electric motor .
An electromagnetic cooking device comprising: a heating cavity ; at least one electromagnetic energy source configured to generate radiation in communication with the heating cavity via a supply cavity ; a first port configured to emit the radiation into a first region of the heating cavity from the supply cavity ; a second port configured to emit the radiation into a second region of the heating cavity from the supply cavity ; a septum disposed along the supply cavity , wherein the septum is configured to adjust a proportion of the radiation emitted from the first port and the second port into the heating cavity ; characterised by a cooking structure comprising ferrite material positioned in the first region of the heating cavity ; and a controller configured to control an actuator adjusting a position of the septum thereby adjusting the proportion of the radiation absorbed by the cooking structure . a heating cavity ; at least one electromagnetic energy source configured to generate radiation in communication with the heating cavity via a supply cavity ; a first port configured to emit the radiation into a first region of the heating cavity from the supply cavity ; a second port configured to emit the radiation into a second region of the heating cavity from the supply cavity ; a septum disposed along the supply cavity , wherein the septum is configured to adjust a proportion of the radiation emitted from the first port and the second port into the heating cavity ; characterised by a cooking structure comprising ferrite material positioned in the first region of the heating cavity ; and a controller configured to control an actuator adjusting a position of the septum thereby adjusting the proportion of the radiation absorbed by the cooking structure .
Charging installation of a metallurgical reactor comprising a bottom section with a heat protection assembly , the assembly comprising a plurality of heat protection tiles (31.1, 31.2, 31.3, 31.4) disposed adjacent to each other along a surface and comprising a plurality of heat protection panels , each panel comprising a common base plate to which a plurality of tiles (31.1, 31.2, 31.3, 31.4) are connected, wherein a gap is provided between adjacent tiles (31.1, 31.2, 31.3, 31.4), which heat protection panels are configured to be mounted on the charging installation adjacent to each other.
A glass composition, especially a contrast enhancing glass, preferably a contrast enhancing sunglass comprising: 45-65 wt.-%, preferably 50-60 wt.-% SiO 2 0-12 wt.-%, preferably 5-10 wt.-% B 2 O 3 0-15 wt.-%, preferably 5-15 wt.-% Na 2 O 0-10 wt.-%, preferably 1-5 wt.-% K 2 O 0-7 wt.-%, preferably 1-5 wt.-% ZnO, characterized in that the glass composition further comprises: 5-12 wt.-%, preferably 5-11 wt.-% Nd 2 O 3 , most prefered 6-10 wt.-% Nd 2 O 3 1-10 wt.-%, preferably 5-7 wt.-% Er 2 O 3 0.5-8 wt.-%, preferably 1-5 wt.-% Ho 2 O 3 0.00-0.05 wt.-%, preferably 0.01 - 0.04 wt.-%, especially 0.02-0.04 wt.-% NiO and the glass beside impurities caused by the raw material is free of copper and/or bromine. 45-65 wt.-%, preferably 50-60 wt.-% SiO 2 0-12 wt.-%, preferably 5-10 wt.-% B 2 O 3 0-15 wt.-%, preferably 5-15 wt.-% Na 2 O 0-10 wt.-%, preferably 1-5 wt.-% K 2 O 0-7 wt.-%, preferably 1-5 wt.-% ZnO, 5-12 wt.-%, preferably 5-11 wt.-% Nd 2 O 3 , most prefered 6-10 wt.-% Nd 2 O 3 1-10 wt.-%, preferably 5-7 wt.-% Er 2 O 3 0.5-8 wt.-%, preferably 1-5 wt.-% Ho 2 O 3 0.00-0.05 wt.-%, preferably 0.01 - 0.04 wt.-%, especially 0.02-0.04 wt.-% NiO and the glass beside impurities caused by the raw material is free of copper and/or bromine.
A humanized anti-Tau antibody that specifically binds an epitope within amino acids 15-24 (SEQ ID NO: 51) of Tau polypeptide, for use in the treatment of Alzheimer's disease in a human subject, wherein said treatment reduces the level of Aβ40 and/or Aβ42 in a neuronal cell and/or extracellular fluid in the human subject.
Method for preparing a fiber-reinforced article , having attached to at least part of its surface a layer of a material that is not fiber-reinforced, comprising the steps of 1) preparing a shell via an additive manufacturing technique, the shell - being of a material that is not fiber-reinforced; and - having a surface that corresponds in negative relief to a surface of the article formed in step 3); - -thereafter 2) applying - long and/or continuous reinforcement fibers; and - a curable resin to the surface of the shell that is in negative relief, to form a mixture of curable resin and long and/or continuous reinforcement fibers on the surface of the shell , so that the surface of the mixture contacting the shell adopts the shape of the surface of the shell that is in negative relief; thereafter 3) curing the curable resin to form the fiber-reinforced article having attached to at least part of its surface a layer of a material that is not fiber-reinforced characterized in that the shell comprises incompletely cured resin, which is further cured during step 3). 1) preparing a shell via an additive manufacturing technique, the shell - being of a material that is not fiber-reinforced; and - having a surface that corresponds in negative relief to a surface of the article formed in step 3); - -thereafter - being of a material that is not fiber-reinforced; and - having a surface that corresponds in negative relief to a surface of the article formed in step 3); - -thereafter 2) applying - long and/or continuous reinforcement fibers; and - a curable resin to the surface of the shell that is in negative relief, to form a mixture of curable resin and long and/or continuous reinforcement fibers on the surface of the shell , so that the surface of the mixture contacting the shell adopts the shape of the surface of the shell that is in negative relief; thereafter - long and/or continuous reinforcement fibers; and - a curable resin to the surface of the shell that is in negative relief, to form a mixture of curable resin and long and/or continuous reinforcement fibers on the surface of the shell , so that the surface of the mixture contacting the shell adopts the shape of the surface of the shell that is in negative relief; thereafter 3) curing the curable resin to form the fiber-reinforced article having attached to at least part of its surface a layer of a material that is not fiber-reinforced characterized in that the shell comprises incompletely cured resin, which is further cured during step 3).