mhurhangee/patent-ind-claim-en huggingface dataset:
Method of manufacturing a cutting electrode for a surgical instrument , in particular a fusion and dissection instrument, with the following steps: provision of a flat material blank from an electrically conductive material, application of a nominal break point which is arranged so as to divide the material blank into a first and a second portion , laying of the material blank provided with the nominal break point in a casting mould which has an engraving and holds the first portion with contact and defines a cavity around the second portion, filling of a plastic into the casting mould in order to produce a plastic body surrounding the second portion , opening of the casting mould and removal of the plastic body with material blank held therein, breaking of the first portion away from the second portion along the nominal break point . provision of a flat material blank from an electrically conductive material, application of a nominal break point which is arranged so as to divide the material blank into a first and a second portion , laying of the material blank provided with the nominal break point in a casting mould which has an engraving and holds the first portion with contact and defines a cavity around the second portion, filling of a plastic into the casting mould in order to produce a plastic body surrounding the second portion , opening of the casting mould and removal of the plastic body with material blank held therein, breaking of the first portion away from the second portion along the nominal break point .
A computer-implemented method comprising: receiving, by a computing device (400; 450), an automated script that includes one or more commands and that is configured to interact with graphical elements that appear on a user interface (100a; 100b; 100c; 100d); executing, by the computing device, a command of the one or more commands of the automated script; determining, by the computing device, that an error occurred during execution of the command of the one or more commands of the automated script; in response to determining that an error occurred during execution of the command, determining, by the computing device, a modification for the command by applying, to the command, a script repair model that is trained using one or more automated scripts that each include commands and results that correspond to each command; executing, by the computing device, the modified command; determining, by the computing device, whether the error or another error occurred during execution of the modified command; and based on determining whether the error or the other error occurred during execution of the modified command, determining whether to update the automated script with the modified command. receiving, by a computing device (400; 450), an automated script that includes one or more commands and that is configured to interact with graphical elements that appear on a user interface (100a; 100b; 100c; 100d); executing, by the computing device, a command of the one or more commands of the automated script; determining, by the computing device, that an error occurred during execution of the command of the one or more commands of the automated script; in response to determining that an error occurred during execution of the command, determining, by the computing device, a modification for the command by applying, to the command, a script repair model that is trained using one or more automated scripts that each include commands and results that correspond to each command; executing, by the computing device, the modified command; determining, by the computing device, whether the error or another error occurred during execution of the modified command; and based on determining whether the error or the other error occurred during execution of the modified command, determining whether to update the automated script with the modified command.
An anchoring device for securement to strata, the device comprising a drilling rod and an anchoring sleeve at least partially surrounding the drilling rod, the drilling rod comprising a driving end for coupling to a drilling apparatus and a drilling end with a drilling head for drilling a hole in strata, wherein the device is configured to be coupled with and driven by a drilling apparatus to cause the drilling head to drill a hole into strata and to force, as the hole is drilled, the anchoring sleeve into the hole to an inserted position in which the anchoring sleeve engages the surrounding strata; characterised in that the anchoring sleeve comprises gripping means on its outer surface for engaging the surrounding strata, wherein the anchoring sleeve comprises a flange adjacent the driving end of the drilling rod , wherein the anchoring device further comprises a resilient element at least partially surrounding the anchoring sleeve and configured to be compressed, in use, between the flange and the strata when the anchoring sleeve is in the inserted position, thereby to urge the anchoring sleeve along a direction that is opposite to the drilling direction.
A method for obtaining synchronization by a device to device, D2D, UE in a wireless communication system, comprising the steps of: measuring at least one D2D synchronization signal reception power of a specific sequence, said D2D synchronization signal reception power corresponds to a correlation result value of a point at which a peak occurs while a D2D synchronization signal and predetermined sequences are correlated with each other; calculating D2D synchronization signal reception quality using the measured D2D synchronization signal reception power; selecting the best D2D synchronization signal having the best quality among received D2D synchronization signals based on the D2D synchronization signal reception quality; and obtaining synchronization from the selected D2D synchronization signal, wherein the D2D synchronization signal reception quality corresponds to X/Y, wherein, X is the measured D2D synchronization signal reception power, and Y is a difference between total reception power and the measured D2D synchronization signal reception power if there is only a specific sequence ID which identifies the specific sequence, wherein if there is a plurality of sequence IDs, Y is determined as a reception power of sequences having the remaining sequence IDs excluding the specific sequence ID among the plurality of sequence IDs. measuring at least one D2D synchronization signal reception power of a specific sequence, said D2D synchronization signal reception power corresponds to a correlation result value of a point at which a peak occurs while a D2D synchronization signal and predetermined sequences are correlated with each other; calculating D2D synchronization signal reception quality using the measured D2D synchronization signal reception power; selecting the best D2D synchronization signal having the best quality among received D2D synchronization signals based on the D2D synchronization signal reception quality; and obtaining synchronization from the selected D2D synchronization signal, wherein the D2D synchronization signal reception quality corresponds to X/Y, wherein, X is the measured D2D synchronization signal reception power, and Y is a difference between total reception power and the measured D2D synchronization signal reception power if there is only a specific sequence ID which identifies the specific sequence, wherein if there is a plurality of sequence IDs, Y is determined as a reception power of sequences having the remaining sequence IDs excluding the specific sequence ID among the plurality of sequence IDs.
An easily sinterable prealloyed iron-based powder, wherein the powder consists of: - at least 80% Fe by weight, - alloying elements and impurities the total content of which is limited to 20% by weight and as a balance, - wherein the alloying elements are 1-18% Cu by weight, 0.2 - 2% P by weight and 0.5 - 4% Sn by weight, and optionally - at least one alloying element as alloying additives selected from the group consisting of Co, Ni, W and Mo in the total content of Co and/or Ni and/or W and/or Mo not more than 5% by weight. - at least 80% Fe by weight, - alloying elements and impurities the total content of which is limited to 20% by weight and as a balance, - wherein the alloying elements are 1-18% Cu by weight, 0.2 - 2% P by weight and 0.5 - 4% Sn by weight, and optionally - at least one alloying element as alloying additives selected from the group consisting of Co, Ni, W and Mo in the total content of Co and/or Ni and/or W and/or Mo not more than 5% by weight.
A device for detecting a dead bolt position of a mortise lock , configured to be attached to an opening of the mortise lock which is provided for a locking cylinder instead of a locking cylinder with: a touch element which is in contact with the operating mechanism of the dead bolt or the dead bolt of the mortise lock , wherein the touch element is rotatably mounted, and wherein a rotation of the touch element is detected by a sensor . a touch element which is in contact with the operating mechanism of the dead bolt or the dead bolt of the mortise lock , wherein the touch element is rotatably mounted, and wherein a rotation of the touch element is detected by a sensor .
A 3D printing system for creating a 3D printed object , the 3D printing system comprising: a platform upon which the 3D printed object can be supported during a 3D printing process; an ink jet printing region that selectively deposits a hydrogel material and a support material on the platform , wherein the ink jet printing region comprises an ink jet printhead comprising a first plurality of orifices through which the hydrogel material can be selectively deposited onto the platform and a second plurality of orifices through which the support material can be selectively deposited onto the platform ; an initiation portion that includes a catalyst source , wherein the catalyst source is a source of actinic radiation that selectively projects light on the material on the platform to cause a reaction within at least a portion of the hydrogel material, wherein the catalyst is selectively applied to some of the exposed hydrogel material on the platform , characterized in that the 3D printing system further comprises a drying region comprising a dryer to remove excess water in the hydrogel material and through which the platform passes to dry at least a portion of the material on the platform ;and wherein the 3D printed object is a scaffold for a biological structure, further characterized in that the ink jet printing region further comprises a planarizer to remove any excess hydrogel material or support material from an uppermost layer of material supported by the platform . a platform upon which the 3D printed object can be supported during a 3D printing process; an ink jet printing region that selectively deposits a hydrogel material and a support material on the platform , wherein the ink jet printing region comprises an ink jet printhead comprising a first plurality of orifices through which the hydrogel material can be selectively deposited onto the platform and a second plurality of orifices through which the support material can be selectively deposited onto the platform ; an initiation portion that includes a catalyst source , wherein the catalyst source is a source of actinic radiation that selectively projects light on the material on the platform to cause a reaction within at least a portion of the hydrogel material, wherein the catalyst is selectively applied to some of the exposed hydrogel material on the platform , characterized in that the 3D printing system further comprises a drying region comprising a dryer to remove excess water in the hydrogel material and through which the platform passes to dry at least a portion of the material on the platform ;and wherein the 3D printed object is a scaffold for a biological structure, further characterized in that the ink jet printing region further comprises a planarizer to remove any excess hydrogel material or support material from an uppermost layer of material supported by the platform .
ID transmitter for a vehicle, comprising a receiving compartment for receiving in particular an energy storage device , the receiving compartment having a receiving opening which is covered by a cover , the cover having a covering section for at least partially covering the receiving opening and at least two latching sections each having a latching surface for latching contact with a counter-latching surface of the receiving compartment , characterized in that, at least one latching section is designed as an unlocking latching section which can be moved relative to the cover section , and at least one latching section is formed as a rigid latching section , wherein the rigid latching section has a latching angle (α) between the latching surface and the horizontal (H), which is formed as an acute angle, wherein the horizontal (H) is an orientation of a plane which is horizontal with respect to the orientation of the cover .
An ink composition comprising: (a) at least a first film-forming elastomeric polymer, (b) at least a second film-forming elastomeric polymer, (c) at least one pigment, and (d) water, wherein the first film-forming elastomeric polymer (a) is hydrogenated acrylonitrile butadiene rubber (HNBR), and wherein the second film-forming elastomeric polymer (b) is styrene butadiene rubber (SBR). (a) at least a first film-forming elastomeric polymer, (b) at least a second film-forming elastomeric polymer, (c) at least one pigment, and (d) water,
Method for initiating a defrosting process of a heat exchanger of a heat pump of a motor vehicle , in particular an electric vehicle or a battery electric vehicle or a hybrid electric motor vehicle, wherein the heat exchanger is assigned a fan , wherein a power consumption and/or a speed of the fan is monitored, wherein a defrosting process is initiated if the power consumption and/or the speed exceeds and/or falls below a threshold value, wherein the threshold value is determined in dependence on a parameter, wherein the parameter is an indicator of a current relative air speed of ambient air in relation to the motor vehicle , characterized in that the parameter is a distance signal of the motor vehicle in relation to a vehicle travelling ahead, and/or in that the parameter is a vehicle position determined by means of a navigation system of the motor vehicle .
Gripper unit for gripping and handling cable ends of two cables of an in particular twisted cable harness , having two gripper jaws , at least one of the gripper jaws and preferably each gripper jaw comprising two jaw elements (4, 4'; 5, 5') arranged one above the other, the cables being able to be acted upon in a clamping manner from the outside by the jaw elements (4, 4'; 5, 5'), characterized in that the gripper unit comprises at least one activatable engagement member with which at least one of the cables can be acted upon in a supporting manner from the inside, the engagement member being arranged between the jaw elements (4, 4'; 5, 5') of one of the gripper jaws .
Fastening device for fastening at least one chain strand to a holding means , comprising a holding section which forms an eyelet and merges into two limbs connected to the holding section , the limbs being bent back towards the holding section , in each case forming a hook-shaped suspension section , characterized in that the holding section has at least two guide bays bent out of the plane of the holding section in an undulating manner, wherein two guide bays are bulged out in opposite directions.
An isolated peptide consisting of an amino acid sequence selected from the group consisting of: SEQ ID NO: 1, SEQ ID NO: 2, SEQ ID NO: 3, SEQ ID NO: 4, SEQ ID NO: 5, SEQ ID NO: 6, SEQ ID NO: 7, SEQ ID NO: 8, SEQ ID NO: 9, SEQ ID NO: 10, SEQ ID NO: 11 and SEQ ID NO: 12 or a variant thereof differing in sequence from the above selected sequence of amino acids by one deletion or insertion and wherein the said peptide or variant binds to one or more circulating autoantibodies associated with breast or ovarian cancer from a mammalian subject.
A method of making 1-(spiro dec-6-en-7-yl)-4-penten-1-one and 1-(spiro dec-7-en-7-yl)-4-penten-1-one (spirogalbanone) comprising the steps of: (a) subjecting ethynylspirodecanol to a Rupe rearrangement to give a compound of the formula I (b) converting the compound of (a) to a C1-C4 alkyl acetal; (c) subjecting the acetal to a trans-acetalisation reaction with allyl alcohol in the presence of a mild acid catalyst; (d) heating the product of (c) in the presence of an acid catalyst to give an allylenolether; and (e) subjecting the product of (d) to a Claisen rearrangement to give spirogalbanone. (a) subjecting ethynylspirodecanol to a Rupe rearrangement to give a compound of the formula I (b) converting the compound of (a) to a C1-C4 alkyl acetal; (c) subjecting the acetal to a trans-acetalisation reaction with allyl alcohol in the presence of a mild acid catalyst; (d) heating the product of (c) in the presence of an acid catalyst to give an allylenolether; and (e) subjecting the product of (d) to a Claisen rearrangement to give spirogalbanone.
A compound of formula I P-Sp-A 1 -(Z 1 -A 2 ) z -R I wherein the individual radicals, independently of each other and on each occurrence identically or differently, have the following meanings P a polymerisable group, Sp a spacer group or a single bond, L 11 -CH 2 -O-CH 3 , R H, L or P-Sp-, L F, Cl, -CN, P-Sp- or straight chain, branched or cyclic alkyl having 1 to 25 C atoms, wherein one or more non-adjacent CH 2 -groups are optionally replaced by -O-, -S-, -CO-, -CO-O-, -O-CO-, -O-CO-O- in such a manner that O- and/or S-atoms are not directly connected with each other, and wherein one or more H atoms are each optionally replaced by P-Sp-, F or Cl, -A 1 -(Z 1 -A 2 ) z - is selected from the following formulae wherein at least one benzene ring is substituted by at least one group L 11 and the benzene rings are optionally further substituted by one or more groups L or P-Sp-, with the proviso that, in case A 1 -(Z 1 -A 2 ) z denotes biphenyl and the compound contains two or more groups P-Sp-, then at least one of the groups Sp that are present in the compound is a single bond. wherein the individual radicals, independently of each other and on each occurrence identically or differently, have the following meanings P a polymerisable group, Sp a spacer group or a single bond, L 11 -CH 2 -O-CH 3 , R H, L or P-Sp-, L F, Cl, -CN, P-Sp- or straight chain, branched or cyclic alkyl having 1 to 25 C atoms, wherein one or more non-adjacent CH 2 -groups are optionally replaced by -O-, -S-, -CO-, -CO-O-, -O-CO-, -O-CO-O- in such a manner that O- and/or S-atoms are not directly connected with each other, and wherein one or more H atoms are each optionally replaced by P-Sp-, F or Cl, -A 1 -(Z 1 -A 2 ) z - is selected from the following formulae P a polymerisable group, Sp a spacer group or a single bond, L 11 -CH 2 -O-CH 3 , R H, L or P-Sp-, L F, Cl, -CN, P-Sp- or straight chain, branched or cyclic alkyl having 1 to 25 C atoms, wherein one or more non-adjacent CH 2 -groups are optionally replaced by -O-, -S-, -CO-, -CO-O-, -O-CO-, -O-CO-O- in such a manner that O- and/or S-atoms are not directly connected with each other, and wherein one or more H atoms are each optionally replaced by P-Sp-, F or Cl, -A 1 -(Z 1 -A 2 ) z - is selected from the following formulae wherein at least one benzene ring is substituted by at least one group L 11 and the benzene rings are optionally further substituted by one or more groups L or P-Sp-, with the proviso that, in case A 1 -(Z 1 -A 2 ) z denotes biphenyl and the compound contains two or more groups P-Sp-, then at least one of the groups Sp that are present in the compound is a single bond.
Method for commissioning an air conditioning system of a vehicle, comprising: a) Reading in a target data record indicating a target vehicle state, wherein the target data record specifies a plurality of vehicle components defined by the vehicle type of the vehicle , which must be present; b) Recording an actual data record indicating an actual vehicle state by measuring at least one signal and/or communicating with at least one vehicle component ; c) Comparing the actual vehicle state with a target vehicle state; d) Activating at least one function of the air conditioning system only if the actual vehicle state corresponds to the target vehicle state. a) Reading in a target data record indicating a target vehicle state, wherein the target data record specifies a plurality of vehicle components defined by the vehicle type of the vehicle , which must be present; b) Recording an actual data record indicating an actual vehicle state by measuring at least one signal and/or communicating with at least one vehicle component ; c) Comparing the actual vehicle state with a target vehicle state; d) Activating at least one function of the air conditioning system only if the actual vehicle state corresponds to the target vehicle state.
A process for recovering non-ferrous metals from a solid matrix comprising the following phases: (a) leaching the solid matrix with an aqueous-based solution containing chloride ions and ammonium ions and having a pH within the range of 6.5-8.5, in the presence of oxygen, at a temperature ranging from 100°C to 160°C and a pressure within the range of 150 kPa - 800 kPa, so as to obtain an extraction solution comprising the leached metals and a solid leaching residue; (b) separating said solid leaching residue from said extraction solution; (c) subjecting said extraction solution to at least one cementation so as to recover the metals in the elemental state; wherein said one cementation comprises at least one cementation step which is a multiphase cementation which comprises: (i) dividing the solution to be subjected to cementation into at least a first and a second aliquot; (ii) effecting a first cementation phase by adding an excess of precipitating metal to said first aliquot so as to precipitate a first metallic cement; (iii) separating said first metallic cement containing the precipitating metal in excess from a first supernatant solution and subjecting said first supernatant solution to a subsequent cementation step; (iv) effecting a second cementation phase by joining said first metallic cement to said second aliquot, so as to precipitate a second metallic cement; (v) separating said first and second metallic cement from a second supernatant solution and subjecting said second supernatant solution to cementation in said first phase. (a) leaching the solid matrix with an aqueous-based solution containing chloride ions and ammonium ions and having a pH within the range of 6.5-8.5, in the presence of oxygen, at a temperature ranging from 100°C to 160°C and a pressure within the range of 150 kPa - 800 kPa, so as to obtain an extraction solution comprising the leached metals and a solid leaching residue; (b) separating said solid leaching residue from said extraction solution; (c) subjecting said extraction solution to at least one cementation so as to recover the metals in the elemental state; (i) dividing the solution to be subjected to cementation into at least a first and a second aliquot; (ii) effecting a first cementation phase by adding an excess of precipitating metal to said first aliquot so as to precipitate a first metallic cement; (iii) separating said first metallic cement containing the precipitating metal in excess from a first supernatant solution and subjecting said first supernatant solution to a subsequent cementation step; (iv) effecting a second cementation phase by joining said first metallic cement to said second aliquot, so as to precipitate a second metallic cement; (v) separating said first and second metallic cement from a second supernatant solution and subjecting said second supernatant solution to cementation in said first phase.