mhurhangee/patent-ind-claim-en huggingface dataset:
A battery pack , in particular for an electric hand tool, having: at least one battery cell and/or a battery cell block, a housing for accommodating the at least one battery cell and/or the at least one battery cell block, and a printed circuit board which can be connected to the at least one rechargeable battery cell via at least one electrically conductive fuse element , wherein the housing has a fuse portion for securingly receiving the at least one electrically conductive fuse element and is integrally formed with the housing, wherein the housing comprises at least one housing part , in particular a housing cover , which is detachable from the rest of the housing, and wherein the securing region is formed at least in sections on the detachable housing part and has two inner housing walls in the assembled state of the battery pack , which, together with sections of the remaining housing, are able to enclose the electrically conductive fuse element connected to a rechargeable battery cell and the printed circuit board in an inner fuse housing and to separate it from the adjacent electrical components.
A finished uncut spectacle lens with - a curved front surface including an optical bowl with a convex curvature; and - a peripheral lentic zone surrounding the optical bowl ,; wherein - the curvature of the curved front surface in the peripheral lentic zone deviates from the convex curvature of the optical bowl , - the finished uncut spectacle lens has a concavely curved back surface which is spherical, aspherical, toric, atoric, or has a freeform having no symmetry, and includes an concave effective curvature which provides, together with the convex curvature of the optical bowl , a prescribed optical correction, and the effective curvature has a radius of curvature that is smaller than the radius of curvature of the front surface in the peripheral lentic zone , characterized in that the radius of curvature of the front surface in the peripheral lentic zone is an infinite radius, and the concavely curved back surface is also present in the in the peripheral lentic zone . - a curved front surface including an optical bowl with a convex curvature; and - a peripheral lentic zone surrounding the optical bowl ,; wherein - the curvature of the curved front surface in the peripheral lentic zone deviates from the convex curvature of the optical bowl , - the finished uncut spectacle lens has a concavely curved back surface which is spherical, aspherical, toric, atoric, or has a freeform having no symmetry, and includes an concave effective curvature which provides, together with the convex curvature of the optical bowl , a prescribed optical correction, and the effective curvature has a radius of curvature that is smaller than the radius of curvature of the front surface in the peripheral lentic zone ,
A communication method for transmitting multimedia data from a multimedia server during a call between first and second terminals , characterized in that it comprises: receiving at the multimedia server a multimedia data transmission request initiated from the first terminal in the call, said request including information identifying the content of the multimedia data to be transmitted and the second terminal to which the data should be transmitted; searching in said multimedia server for the requested multimedia data indicated by the identified content, and responsive to said request, transmitting from said multimedia server said identified multimedia data content to the second terminal identified by the information in the request. receiving at the multimedia server a multimedia data transmission request initiated from the first terminal in the call, said request including information identifying the content of the multimedia data to be transmitted and the second terminal to which the data should be transmitted; searching in said multimedia server for the requested multimedia data indicated by the identified content, and responsive to said request, transmitting from said multimedia server said identified multimedia data content to the second terminal identified by the information in the request.
Process for producing methanol, wherein the process comprises the steps of: a) providing and compressing a make-up gas stream MG , wherein the make-up gas stream MG comprises at least one carbon oxide and hydrogen; b) reacting a synthesis gas stream SG in a synthesis stage over a solid methanol synthesis catalyst, wherein raw methanol and a residual gas stream RG are obtained and wherein the raw methanol after cooling and condensation as liquid reaction product and the residual gas stream RG are discharged from the synthesis stage ; c) combining the residual gas stream RG with the make-up gas stream MG to obtain the synthesis gas stream SG , characterized in that the residual gas stream RG and the make-up gas stream MG are combined using a jet pump , wherein the compressed make-up gas stream MG is supplied to the jet pump as motive medium via its motive media connection at a pressure p 1 and the residual gas stream RG is supplied to the jet pump as suction medium via its suction port at a pressure p 3 and wherein the synthesis gas stream SG is discharged from the jet pump via its pressure port at a pressure p 2 and subsequently supplied to the synthesis stage and wherein p 1 > p 2 > p 3 . a) providing and compressing a make-up gas stream MG , wherein the make-up gas stream MG comprises at least one carbon oxide and hydrogen; b) reacting a synthesis gas stream SG in a synthesis stage over a solid methanol synthesis catalyst, wherein raw methanol and a residual gas stream RG are obtained and wherein the raw methanol after cooling and condensation as liquid reaction product and the residual gas stream RG are discharged from the synthesis stage ; c) combining the residual gas stream RG with the make-up gas stream MG to obtain the synthesis gas stream SG ,
Carburettor for the internal combustion engine in a hand-guided working implement, with a carburettor housing wherein, in the carburettor housing , a carburettor roller is rotatably mounted around a swivel axis , wherein the carburettor roller has a roller body , wherein the roller body has at least one channel running transversely to the swivel axis and forming a suction channel section, wherein a detection device is provided to detect at least one rotary position of the carburettor roller , wherein the detection device is designed to generate an electrical signal, characterised in that the detection device includes a control contour and detection means acting in conjunction with the control contour , and that the control contour is formed on the carburettor roller .
A pool skimming device , including a port for guiding the water of the pool, extending lengthwise from a water inlet front opening of the port towards a rear opening of the port , and a water filtering and discharging body linked to the rear opening , the water inlet front opening of the port being delimited at least by a front horizontal edge of a bottom wall of the port and by first and second front vertical edges respectively of the first and second side walls of the port , which are located at a distance from each other and which are connected to the bottom wall , the rear opening being delimited at least by a rear horizontal edge of the bottom wall and by first and second rear vertical edges of respectively the first and second side walls , the port being intended to be inserted into a housing hole provided in an upper portion of a third wall of the swimming pool, characterized in that the first and second side walls respectively have first and second upper edges , which are inclined downward in a first descent direction (S1) from the first and second rear vertical edges towards the first and second front vertical edges , the port including an inclined skimming opening , which is located between the first and second upper edges and which descends over a first determined length (L1) above the bottom wall in the first descent direction (S1).
Apparatus for handling oblong metal bars , comprising a loading unit provided with transporter elements defining a support plane for said bars and configured to transfer the latter in a first direction (D1) transverse to the longitudinal development of said bars and toward a selector unit , wherein said selector unit comprises gripping means configured to take at least one portion of one or more bars and to lift it with respect to said support plane , wherein said apparatus comprises sensors configured to automatically detect at least the number of bars removed and released by said gripping means toward a collection station , characterized in that said gripping means are fixed and located above said support plane , in that at least one detachment device is provided between said loading unit and said selector unit and comprises a plurality of arms and a motion transmission elements provided to move said arms in a second direction (D2), transverse to said first direction (D1), to detach from said loading unit one or more bars lifted by said gripping means and to release them toward the subsequent collection station said arms being positioned, at least in their operating condition for extracting the bars , above said support plane , in that said arms have a hooked shape, with a first end portion attached to the motion transmission element and a second end portion free and which, during use contacts the bars to determine their extraction, at least said second end portion overlapping said support plane , and said arms being inclined toward the collection station .
A method for performing uplink transmission by a Machine Type Communication, MTC, User Equipment, UE, supporting MTC in a wireless access system, the method being performed by the MTC UE and comprising: repeatedly transmitting a Physical Uplink Control Channel, PUCCH, message N1 times during N1 subframes, where N1 is an integer larger than 1; and repeatedly transmitting a Physical Uplink Shared Channel, PUSCH, message N2 times during N2 subframes, where N2 is an integer larger than 1, wherein if at least one of the N2 subframes is overlapped with at least one of the N1 subframes, the MTC UE transmits only the at least one of the N1 PUCCH messages, without the PUSCH message transmission, at the at least one overlapped subframe. repeatedly transmitting a Physical Uplink Control Channel, PUCCH, message N1 times during N1 subframes, where N1 is an integer larger than 1; and repeatedly transmitting a Physical Uplink Shared Channel, PUSCH, message N2 times during N2 subframes, where N2 is an integer larger than 1,
A cross-linkable polyethylene composition for high frequency welding comprising - a copolymer ( A ) of ethylene and an α-olefin comonomer ( A1 ) with 3 to 12 carbon atoms having a density of from 850 to 970 kg/m 3 , and - a terpolymer ( B ) of ethylene, a polar comonomer ( B1 ) and a crosslinkable comonomer ( B2 ) wherein the polar comonomer ( B1 ) is present in the ethylene terpolymer ( B ) in an amount in the range of 25 to 30 wt-% with respect to the total weight of the ethylene terpolymer ( B ). - a copolymer ( A ) of ethylene and an α-olefin comonomer ( A1 ) with 3 to 12 carbon atoms having a density of from 850 to 970 kg/m 3 , and - a terpolymer ( B ) of ethylene, a polar comonomer ( B1 ) and a crosslinkable comonomer ( B2 )
A tip element preferably for a dental treatment device, in particular a scaler, wherein the tip element performs an ultrasonic vibration during its utilization, comprising - a first end section for reversibly attaching the tip element to a hand piece, - a second end section , forming a dental tool, wherein the second end section tapers to a pointed end and - a motion transformation section arranged between the first end section and the second end section , wherein, for transforming an ultrasonic vibration having a first vibration direction (V1) to an ultrasonic vibration having a second vibration direction (V2), the motion transformation section has a first bended subsection and a second bended subsection , wherein a course of the tip element is bended - about a first angle (α1) in the first bended subsection and - about a second angle (α2) in the second bended subsection , wherein a difference between the first angle (α1) and the second angle (α2) is smaller than 15°, characterized in that the first angle (α1) and/or the second angle (α2) are between 85° and 125°. - a first end section for reversibly attaching the tip element to a hand piece, - a second end section , forming a dental tool, wherein the second end section tapers to a pointed end and - a motion transformation section arranged between the first end section and the second end section , wherein, for transforming an ultrasonic vibration having a first vibration direction (V1) to an ultrasonic vibration having a second vibration direction (V2), the motion transformation section has a first bended subsection and a second bended subsection , wherein a course of the tip element is bended - about a first angle (α1) in the first bended subsection and - about a second angle (α2) in the second bended subsection , wherein a difference between the first angle (α1) and the second angle (α2) is smaller than 15°, characterized in that the first angle (α1) and/or the second angle (α2) are between 85° and 125°.
Composition for a pasty fill and finishing material, comprising at least one filler, at least one binding agent, and additives, wherein the at least one filler has a density dependent flowability (ff ρ ) value of from 3 to 20, preferably of from 4 to 15, more preferably of from 5 to 10, most preferably of from 6 to 8, wherein the at least one filler is a hollow, spherical aluminum silicate, and wherein the composition further comprises at least a second and a third filler, wherein the second and the third filler of the composition comprise at least a first and a second carbonate, wherein the particle size distribution of the first carbonate is different from the particle size distribution of the second carbonate, and wherein the density dependent flowability (ff ρ ) is determined as described in the description.
A method of manufacturing, remanufacturing or repairing an actively cooled component having an internal cooling air passage architecture ; characterized by comprising: disposing a material including radiopaque particles in the internal cooling air passage architecture of a component ; performing a manufacturing, remanufacturing or repair process on the component ; removing the material including radiopaque particles from the internal cooling air passage architecture of the component ; and inspecting the component via radiographic imaging at gamma/X-ray wavelengths to detect residual material . disposing a material including radiopaque particles in the internal cooling air passage architecture of a component ; performing a manufacturing, remanufacturing or repair process on the component ; removing the material including radiopaque particles from the internal cooling air passage architecture of the component ; and inspecting the component via radiographic imaging at gamma/X-ray wavelengths to detect residual material .
An antenna device comprising: an array antenna with multiple antenna elements that are arranged in two dimensions, the multiple antenna elements being arranged along each of a first axis (X) and a second axis (Y); at least one phase adjusting unit configured to adjust, with respect to a first axial direction, a phase of power supplied to each of the multiple antenna elements ; a fisheye lens ; an image capturing unit configured to capture an image through the fisheye lens ; a position converting unit configured to convert a first position (P1), which is used in the image capturing unit , of a marker included in the image captured by the image capturing unit , into a second position (P2) of polar coordinates on a first plane (XY) that includes the first axis (X) and the second axis (Y), the marker being attached to a target to be irradiated with a beam through the array antenna ; an elevation-angle acquiring unit configured to determine, within a second plane (XZ) that includes the first axis (X) and a third axis (Z), an elevation angle (θa) of a projected position (P1a) relative to the third axis (Z), based on the second position (P2) and based on a geometric relationship between the first position (P1) and the projected position (P1a), the projected position (P1a) being obtained by projecting the first position (P1) onto the second plane (XZ); and a control unit configured to control the phase adjusting unit such that a direction of a beam radiated through the array antenna is derived from the elevation angle (θa) within the second plane (XZ). an array antenna with multiple antenna elements that are arranged in two dimensions, the multiple antenna elements being arranged along each of a first axis (X) and a second axis (Y); at least one phase adjusting unit configured to adjust, with respect to a first axial direction, a phase of power supplied to each of the multiple antenna elements ; a fisheye lens ; an image capturing unit configured to capture an image through the fisheye lens ; a position converting unit configured to convert a first position (P1), which is used in the image capturing unit , of a marker included in the image captured by the image capturing unit , into a second position (P2) of polar coordinates on a first plane (XY) that includes the first axis (X) and the second axis (Y), the marker being attached to a target to be irradiated with a beam through the array antenna ; an elevation-angle acquiring unit configured to determine, within a second plane (XZ) that includes the first axis (X) and a third axis (Z), an elevation angle (θa) of a projected position (P1a) relative to the third axis (Z), based on the second position (P2) and based on a geometric relationship between the first position (P1) and the projected position (P1a), the projected position (P1a) being obtained by projecting the first position (P1) onto the second plane (XZ); and a control unit configured to control the phase adjusting unit such that a direction of a beam radiated through the array antenna is derived from the elevation angle (θa) within the second plane (XZ).
A method for retrofitting an elevator machine with a thrust bearing , comprising: removing, from a bearing stand , a first cover plate , providing access to an end portion of a motor shaft ; securing an extension shaft against the end portion of the motor shaft ; securing a thrust bearing housing against, or axially offset from, the bearing stand ; positioning the thrust bearing in the bearing housing , wherein: an inner race of the thrust bearing is securely positioned against, and axially fixed to, the extension shaft ; and an outer race of the thrust bearing is securely positioned against the bearing housing ; and securing a second cover plate to the bearing housing . removing, from a bearing stand , a first cover plate , providing access to an end portion of a motor shaft ; securing an extension shaft against the end portion of the motor shaft ; securing a thrust bearing housing against, or axially offset from, the bearing stand ; positioning the thrust bearing in the bearing housing , wherein: an inner race of the thrust bearing is securely positioned against, and axially fixed to, the extension shaft ; and an outer race of the thrust bearing is securely positioned against the bearing housing ; and securing a second cover plate to the bearing housing . an inner race of the thrust bearing is securely positioned against, and axially fixed to, the extension shaft ; and an outer race of the thrust bearing is securely positioned against the bearing housing ; and securing a second cover plate to the bearing housing .
A polyol component P) comprising: a) 0% to 70% by weight of one or more polyether polyols A) having an OH number in the range from 300 to 520 mg KOH/g and selected from reaction products of monosaccharides, oligosaccharides, polysaccharides, polyhydric alcohols, alkoxylation products of the aforementioned compounds or mixtures thereof with alkylene oxides; b) 0% to < 5% by weight of one or more polyether polyols B) having an OH number in the range from 320 to 500 mg KOH/g and selected from reaction products of aromatic diamines with alkylene oxides; c) > 0% to 30% by weight of one or more polyether polyols C) having an OH number in the range from 100 to 240 mg KOH/g and selected from reaction products of amines, polyhydric alcohols or mixtures thereof with alkylene oxides; d) 5% to 80% by weight of one or more polyether ester polyols D) having an OH number of 380 to 480 mg KOH/g and a content of fatty acids of 5% to 25% by weight, based on the polyether ester polyols D); e) optionally one or more catalysts E); f) optionally one or more further components F) selected from auxiliaries and additives; g) optionally one or more blowing agents selected from chemical blowing agents G1) and physical blowing agents G2); where the concentration figures in % by weight for A) to D) are based on the total amount of components A) to G1) of the polyol component P). a) 0% to 70% by weight of one or more polyether polyols A) having an OH number in the range from 300 to 520 mg KOH/g and selected from reaction products of monosaccharides, oligosaccharides, polysaccharides, polyhydric alcohols, alkoxylation products of the aforementioned compounds or mixtures thereof with alkylene oxides; b) 0% to < 5% by weight of one or more polyether polyols B) having an OH number in the range from 320 to 500 mg KOH/g and selected from reaction products of aromatic diamines with alkylene oxides; c) > 0% to 30% by weight of one or more polyether polyols C) having an OH number in the range from 100 to 240 mg KOH/g and selected from reaction products of amines, polyhydric alcohols or mixtures thereof with alkylene oxides; d) 5% to 80% by weight of one or more polyether ester polyols D) having an OH number of 380 to 480 mg KOH/g and a content of fatty acids of 5% to 25% by weight, based on the polyether ester polyols D); e) optionally one or more catalysts E); f) optionally one or more further components F) selected from auxiliaries and additives; g) optionally one or more blowing agents selected from chemical blowing agents G1) and physical blowing agents G2);