mhurhangee/ep-ind-claims huggingface dataset:
A laser processing method for cutting along a line to be cut an object to be processed including a substrate such as a semiconductor material substrate, a piezoelectric substrate, a glass substrate, and a sapphire substrate, and functional devices disposed on the substrate, the method comprising the steps of: attaching a protective film to the front face of the object on the functional devices side so as to cover the functional devices, attaching an expandable film to the rear face of the object, applying an external force to the object so as to cut the object into a plurality of parts from the cutting start region acting as a start point, and expanding the expandable film so as to separate the plurality of parts of the object from each other, wherein the external force is applied by pressing a means for pressing against the object against said line by way of the expandable film so as to generate a fracture from the cutting start region and cause the fracture to reach the front face and rear face of the object so as to break and cut the object, characterized by irradiating the object with laser light while employing the rear face of the object as a laser light entrance surface and locating a light-converging point within the substrate so as to form a modified region, and causing the modified region to form the cutting start region shifted from the centre line to the front face side of the object along the line along which the object is intended to be cut, wherein the protective film is attached to the front face of the object before attaching the expandable film and before causing the modified region to form the cutting start region. attaching a protective film to the front face of the object on the functional devices side so as to cover the functional devices, attaching an expandable film to the rear face of the object, applying an external force to the object so as to cut the object into a plurality of parts from the cutting start region acting as a start point, and expanding the expandable film so as to separate the plurality of parts of the object from each other, wherein the external force is applied by pressing a means for pressing against the object against said line by way of the expandable film so as to generate a fracture from the cutting start region and cause the fracture to reach the front face and rear face of the object so as to break and cut the object, characterized by irradiating the object with laser light while employing the rear face of the object as a laser light entrance surface and locating a light-converging point within the substrate so as to form a modified region, and causing the modified region to form the cutting start region shifted from the centre line to the front face side of the object along the line along which the object is intended to be cut, wherein the protective film is attached to the front face of the object before attaching the expandable film and before causing the modified region to form the cutting start region.
A medium comprising uridine at a concentration of 0.5 to 10 mM and N-acetyl-D-mannosamine at a concentration of 1 to 15 mM for expressing a glycoprotein by culturing cells, wherein preferably the concentration of uridine is 1 to 8 mM and the concentration of N-acetyl-D-mannosamine is 4 to 12 mM, wherein more preferably the concentration of uridine is 2 to 5 mM and the concentration of N-acetyl-D-mannosamine is 5 to 10 mM, wherein further more preferably the concentration of uridine is about 3 mM and the concentration of N-acetyl-D-mannosamine is about 8 mM.
Device for contactlessly triggering a cistern valve, comprising a cover plate for covering an inspection opening of a cistern, an electronic control unit, an electromagnetic actuator for actuating a cistern valve and a display device (16, 17, 18), a water level sensor for detecting the cistern fill level being connected to the control unit, characterised in that a sensor matrix for contactlessly detecting body movements is connected to the control unit, the control unit being provided with a memory for storing at least one signal value emitted by the sensor matrix and an evaluation device for comparing a signal value emitted by the sensor matrix with at least one stored signal value associated with a body movement, the cover plate being provided with the display device (16, 17, 18) and the display device (16, 17, 18) being designed to display a triggered flushing and the current cistern fill level.
A positive electrode for a lithium-air battery comprising: a positive electrode collector formed with metal foil having evenly spaced holes; and a positive electrode active layer provided on the positive electrode collector, the positive-electrode active layer including a conductive material and a catalyst for oxygen reduction, wherein a thickness of the positive electrode collector is greater than or equal to 10 micrometers and less than or equal to 50 micrometers. a positive electrode collector formed with metal foil having evenly spaced holes; and a positive electrode active layer provided on the positive electrode collector, the positive-electrode active layer including a conductive material and a catalyst for oxygen reduction, wherein a thickness of the positive electrode collector is greater than or equal to 10 micrometers and less than or equal to 50 micrometers.
Continuous flow chemical method for the solid phase synthesis of peptides and enantiomers, diastereomers, stereoisomers, mixtures and salts thereof, and/or derivatives thereof, comprising the steps of: a) preconditioning the solid support for coupling; b) coupling an amino acid free on one terminal group and protected on the other terminal group, and optionally on any other reactive group(s), to the solid support; then c) removing the terminal protecting group from the amino acid coupled to the solid support; then d) coupling another amino acid free on the corresponding terminal group and protected on the other terminal group, and optionally on any other reactive group(s), to the product obtained in step c); then repetition of the operations of steps c) and d) in succession on the protected terminal amino acid of the product obtained in each step d) as many times as necessary to obtain the desired product; and then optionally e) after removing the terminal protecting group from the product obtained in the final step d) "capping" the product thus obtained with a compound free or activated on a reactive group and protected on any other reactive group(s); and/or f) cleaving the peptide obtained in steps d) or e) from the solid support, and optionally converting the product obtained in step f) into a salt and/or a derivative, and/or hydrolysis thereof, characterized by that the steps a)-e) are performed on a temperature ranging from 30 °C to 150 °C and on a pressure ranging from 20 bar to 500 bar,and in step d) the molar ratio between the product obtained in step c) and the amino acid to be coupled is not more than 1:1,5. a) preconditioning the solid support for coupling; b) coupling an amino acid free on one terminal group and protected on the other terminal group, and optionally on any other reactive group(s), to the solid support; then c) removing the terminal protecting group from the amino acid coupled to the solid support; then d) coupling another amino acid free on the corresponding terminal group and protected on the other terminal group, and optionally on any other reactive group(s), to the product obtained in step c); then repetition of the operations of steps c) and d) in succession on the protected terminal amino acid of the product obtained in each step d) as many times as necessary to obtain the desired product; and then optionally e) after removing the terminal protecting group from the product obtained in the final step d) "capping" the product thus obtained with a compound free or activated on a reactive group and protected on any other reactive group(s); and/or f) cleaving the peptide obtained in steps d) or e) from the solid support, and optionally converting the product obtained in step f) into a salt and/or a derivative, and/or hydrolysis thereof,
Torque bracing device for mounting a drive wheel with a hub motor on a wheel chair comprising a frame, characterized by an assembly element connected to a stator part of the hub motor in a torque-proof manner and comprising at least one oblong hole, and two pins (20, 30) fixable along said at least one oblong hole at such a position with respect to the assembly element that they adjoin the frame of the wheel chair and prevent a rotation of the stator part of the hub motor of the drive wheel in a forward direction of the wheel chair as well as in a rearward direction thereof by a form-fit connection.
A compound of Formula I wherein R 1 is levulinyl (Lev); R 2 is OAcetyl or -OBenzoyl; R 3 is benzyl; R 4 is N 3 (azide); R 5 is methyl; R 6 is CO 2 CH 2 C 6 H 5; and R 7 is -CO 2 Me, or R 1 is tetrahydropyran; R 2 is -OAcetyl or -OBenzoyl; R 3 is benzyl; R4 is N 3 (azide); R 5 is methyl; R 6 is -CO 2 CH 2 C 6 H 5; and R 7 is -CO 2 Me; or R 1 is tetrahydropyran; R 2 is -O- or a salt thereof; R 3 is benzyl; R 4 is N 3 (azide); R 5 is methyl; and R 6 and R 7 are independently selected from -CO 2 - or a salt thereof, or R 1 is tetrahydropyran; R 2 is -OSO 3" or a salt thereof; R 3 is benzyl; R 4 is N 3 (azide); R 5 is methyl; and R 6 and R 7 are independently selected from -CO 2 - or a salt thereof, or R 1 is tetrahydropyran; R 2 is -OSO 3 - or a salt thereof; R3 is H; R4 is NH2; R 5 is methyl; and R 6 and R 7 are independently selected from -CO 2 - or a salt thereof, or R 1 is tetrahydropyran; R 2 is -OSO 3 Na; R 3 is H; R 4 is NHSO 3 Na; R 5 is methyl; and R 6 and R 7 are independently selected from -CO 2 Na, and wherein said compound has alpha (α) stereochemistry at the carbon bearing the - OR 5 group. R 1 is levulinyl (Lev); R 2 is OAcetyl or -OBenzoyl; R 3 is benzyl; R 4 is N 3 (azide); R 5 is methyl; R 6 is CO 2 CH 2 C 6 H 5; and R 7 is -CO 2 Me, or R 1 is tetrahydropyran; R 2 is -OAcetyl or -OBenzoyl; R 3 is benzyl; R4 is N 3 (azide); R 5 is methyl; R 6 is -CO 2 CH 2 C 6 H 5; and R 7 is -CO 2 Me; or R 1 is tetrahydropyran; R 2 is -O- or a salt thereof; R 3 is benzyl; R 4 is N 3 (azide); R 5 is methyl; and R 6 and R 7 are independently selected from -CO 2 - or a salt thereof, or R 1 is tetrahydropyran; R 2 is -OSO 3" or a salt thereof; R 3 is benzyl; R 4 is N 3 (azide); R 5 is methyl; and R 6 and R 7 are independently selected from -CO 2 - or a salt thereof, or R 1 is tetrahydropyran; R 2 is -OSO 3 - or a salt thereof; R3 is H; R4 is NH2; R 5 is methyl; and R 6 and R 7 are independently selected from -CO 2 - or a salt thereof, or R 1 is tetrahydropyran; R 2 is -OSO 3 Na; R 3 is H; R 4 is NHSO 3 Na; R 5 is methyl; and R 6 and R 7 are independently selected from -CO 2 Na, and
A load handling system arranged to be mounted to a vehicle and further arranged for supporting loading and unloading of load carrying objects, such as containers and flat rack containers, onto and from, the vehicle from rear of the vehicle; the load handling system comprises: - a frame arrangement comprising a mounting assembly arranged to be fastened to a vehicle frame at a rear end of the vehicle; - a first support member and a second support member, wherein the first and second support members are arranged for supporting the underside of a first type of load carrying objects during loading and unloading, and wherein the load handling system further comprises a first folding structure and a second folding structure respectively connecting the mounting assembly with the first support member and the second support member, and that said first and second folding structures (14, 16) are configured to be moved between an unfolded position, and a folded position, wherein in the unfolded position, the first and second support members (10, 12) are in their active position, and arranged to support the underside of the first type of a load carrying object during a loading/unloading procedure, and wherein in the folded position, the first and second support members (10, 12) are in their passive position, being a stowed position, thereby enabling use of third support members arranged at the mounting assembly for supporting the underside of a second type of load carrying objects during loading and unloading of the second type of load carrying object, characterized in that the first and second support members (10, 12) are configured to be folded towards a longitudinal symmetry axis A1 of the vehicle. - a frame arrangement comprising a mounting assembly arranged to be fastened to a vehicle frame at a rear end of the vehicle; - a first support member and a second support member, wherein the first and second support members are arranged for supporting the underside of a first type of load carrying objects during loading and unloading, and
A process for fabricating a hybrid optical detector comprising the steps of: - assembling, via an assembly layer, on the one hand an absorbing structure (Sabs) that is sensitive in a wavelength band of interest, said structure comprising at least one absorbing layer made of III-V semiconductor having a first doping type chosen from n or p, and on the other hand a read-out circuit (ROIC) comprising a plurality of buried contacts, the read-out circuit being intended to receive an electrical signal generated from the carriers photogenerated by absorption of light by the absorbing semiconductor layer and - locally etching, through the absorbing structure, the assembly layer and the read-out circuit up to the contacts, so as to form electrical via-holes, - depositing a protective layer (PL, PLsca, PLd, PLscna, PLsc0) on the walls of the via-holes, - producing a doped region of a second doping type different from the first doping type by diffusing a dopant (Dop) into the absorbing structure through said protective layer, said region extending annularly around said via-holes so as to form a diode (PhD) comprising a p-n junction allowing the photogenerated carriers to be separated and transported, - depositing a metallization layer on the walls of the via-holes allowing the doped region to be electrically connected to the contact, so as to make an electrical connection between absorbing layer and read-out circuit (ROIC). - assembling, via an assembly layer, on the one hand an absorbing structure (Sabs) that is sensitive in a wavelength band of interest, said structure comprising at least one absorbing layer made of III-V semiconductor having a first doping type chosen from n or p, and on the other hand a read-out circuit (ROIC) comprising a plurality of buried contacts, the read-out circuit being intended to receive an electrical signal generated from the carriers photogenerated by absorption of light by the absorbing semiconductor layer and - locally etching, through the absorbing structure, the assembly layer and the read-out circuit up to the contacts, so as to form electrical via-holes, - depositing a protective layer (PL, PLsca, PLd, PLscna, PLsc0) on the walls of the via-holes, - producing a doped region of a second doping type different from the first doping type by diffusing a dopant (Dop) into the absorbing structure through said protective layer, said region extending annularly around said via-holes so as to form a diode (PhD) comprising a p-n junction allowing the photogenerated carriers to be separated and transported, - depositing a metallization layer on the walls of the via-holes allowing the doped region to be electrically connected to the contact, so as to make an electrical connection between absorbing layer and read-out circuit (ROIC).
A packaging machine for packing rolls of paper comprising: - an insertion station for inserting the rolls in wrapping sheets; - a feed path of the rolls; - a conveyor to feed the rolls along said feed path; - a folding station adapted to be equipped alternatively: (a) with first stationary folding members (71, 73) to fold lateral flaps of said wrapping sheets against end surfaces of said rolls; (b) or with second dynamic folding members, (93, 95, 97) to insert lateral flaps of said wrapping sheets inside holes of respective winding cores of said rolls; wherein said folding station comprises: a first slide and a second slide, arranged at the sides of said feed path and movable according to a direction of movement, which is transverse with respect to the feed path; and at least one actuator to move said slides along said direction of movement; and wherein at least some of the first folding members and of the second folding members are selectively constrainable to said slides. - an insertion station for inserting the rolls in wrapping sheets; - a feed path of the rolls; - a conveyor to feed the rolls along said feed path; - a folding station adapted to be equipped alternatively: (a) with first stationary folding members (71, 73) to fold lateral flaps of said wrapping sheets against end surfaces of said rolls; (b) or with second dynamic folding members, (93, 95, 97) to insert lateral flaps of said wrapping sheets inside holes of respective winding cores of said rolls; (a) with first stationary folding members (71, 73) to fold lateral flaps of said wrapping sheets against end surfaces of said rolls; (b) or with second dynamic folding members, (93, 95, 97) to insert lateral flaps of said wrapping sheets inside holes of respective winding cores of said rolls;
An X-ray inspection system comprising an X-ray source and a detector (303, 200) for detecting transmitted X-rays having a range of intensities, wherein the detector comprises: at least one crystal adapted to produce a light signal upon interacting with said X rays, said at least one crystal being coupled with at least one photodiode and at least one photomultiplier; and a processing unit (206, 214) coupled with the at least one crystal, characterized in that said processing unit is adapted to reject all detected radiation having energy levels below a predefined threshold value. at least one crystal adapted to produce a light signal upon interacting with said X rays, said at least one crystal being coupled with at least one photodiode and at least one photomultiplier; and a processing unit (206, 214) coupled with the at least one crystal, characterized in that said processing unit is adapted to reject all detected radiation having energy levels below a predefined threshold value.
A method comprising: generating a near field communication field using an NFC enabled device; receiving, from an NFC tag associated with a printer, a set of data associated with the printer in response to the generated NFC field, wherein the set of data comprises information indicating data stored in at least one sector of the NFC tag, wherein the data stored in the at least one sector indicates a read-only status of one or more of the sectors of the NFC tag; determining a source for accessing a set of configuration values for a configuration of the printer based on the data stored in the at least one sector and based on whether the read-only status has changed from a default value determining that the printer has been modified from its original configuration, wherein the source is either the NFC tag or a remote database, wherein the source is determined to be the NFC tag in response to determining that the read-only status has not changed from the default value and wherein the source is determined to be the remote database in response to determining that the read-only status has changed from the default value; and obtaining the set of configuration values for the configuration of the printer from the determined source. generating a near field communication field using an NFC enabled device; receiving, from an NFC tag associated with a printer, a set of data associated with the printer in response to the generated NFC field, wherein the set of data comprises information indicating data stored in at least one sector of the NFC tag, wherein the data stored in the at least one sector indicates a read-only status of one or more of the sectors of the NFC tag; determining a source for accessing a set of configuration values for a configuration of the printer based on the data stored in the at least one sector and based on whether the read-only status has changed from a default value determining that the printer has been modified from its original configuration, wherein the source is either the NFC tag or a remote database, wherein the source is determined to be the NFC tag in response to determining that the read-only status has not changed from the default value and wherein the source is determined to be the remote database in response to determining that the read-only status has changed from the default value; and obtaining the set of configuration values for the configuration of the printer from the determined source.
Cooling unit of a turboshaft comprising a driving shaft and an impeller mounted in cantilever on said shaft, said driving shaft and said impeller each rotating around the same axis of rotation, the cooling unit comprising a mechanical fuse mounted between said driving shaft and said impeller, the mechanical fuse being fixed between said driving shaft and said impeller, said fuse comprising a body extending in a longitudinal direction parallel to said axis of rotation, characterised in that said body comprises a plurality of longitudinal bars, each bar being suitable for being deformed in bending, under the action of a torsional moment applied to all the bars, so as to form a breakable mechanical fuse.
A sump pressurization system for a gas turbine engine comprising: a first hollow shaft; a second hollow shaft disposed within said first hollow shaft and defining a cavity therebetween, each of said first and second hollow shafts having a common axis of rotation; a source of pressurized air to pressurize said cavity; a plurality of hollow tubes disposed in said cavity, said tubes being oriented perpendicular to said axis of rotation and being connected to and rotatable with said first hollow shaft; characterized in that said sump pressurization system further comprises: a plurality of apertures in said second hollow shaft in fluid communication with said tubes, such that pressurized air flowing through said tubes passes through said apertures into the interior of said second hollow shaft. a first hollow shaft; a second hollow shaft disposed within said first hollow shaft and defining a cavity therebetween, each of said first and second hollow shafts having a common axis of rotation; a source of pressurized air to pressurize said cavity; a plurality of hollow tubes disposed in said cavity, said tubes being oriented perpendicular to said axis of rotation and being connected to and rotatable with said first hollow shaft; characterized in that said sump pressurization system further comprises: a plurality of apertures in said second hollow shaft in fluid communication with said tubes, such that pressurized air flowing through said tubes passes through said apertures into the interior of said second hollow shaft. a plurality of apertures in said second hollow shaft in fluid communication with said tubes, such that pressurized air flowing through said tubes passes through said apertures into the interior of said second hollow shaft.