mhurhangee/patent-ind-claim-en huggingface dataset:
Trim panel for a motorcycle or a motor scooter formed from a plurality of trim parts which in each case have aligning means, via which the trim parts can be aligned with respect to one another into a predefined position and, fastened to one another here at least via the aligning means, form a trim unit, a main fastening means being provided on at least a first one of the trim parts, which main fastening means is configured to fasten the trim unit as a whole with trim parts which have already been aligned with respect to one another to a support structure of the motorcycle or motor scooter, characterized in that , on the first trim part , the aligning means is configured in one piece as a retaining clip with a lateral clip engagement means , into which a stud which is configured on a second trim part engages, and the retaining clip and the stud producing a connection which eliminates two degrees of freedom between the first and the second trim part , the first and second trim part being mounted such that they can be moved with respect to one another and can be rotated via the stud .
Assembly comprising - an electric machine having a stator and a rotatable rotor , - a rotatable output element , which is operatively connected to the rotor in order to transmit a torque, and - an axial offset device , the axial offset device being arranged between the rotor and the output element , and the transmission of a torque being made possible in the event of an axial offset and/or an angular offset between an axis of rotation (A1) of the rotor and an axis of rotation (A2) of the output element , the axial offset device having a drive element , an output drive element and at least one resilient element , the resilient element being arranged functionally between the drive element and the output drive element , characterized in that the drive element and the output drive element have cut-outs which in each case in pairs form a receptacle , wherein the resilient element is arranged within a receptacle . - an electric machine having a stator and a rotatable rotor , - a rotatable output element , which is operatively connected to the rotor in order to transmit a torque, and - an axial offset device ,
Container treatment machine, in particular an empty container labelling machine, comprising at least one assembly (B) for handling a container according to a neck handling principle during treatment in the container treatment machine after being transferred from an infeed transport path (E) in order to be transferred into a outfeed transport path (A), the assembly (B) having a centring head comprising a centring element that can be linearly adjusted between a passive position and a clamping position via an adjustment path, and a container plate being provided in alignment with the centring head , the container being clamped, for treatment in the direction of its longitudinal axis, between the centring element and the container plate by the centring element which grips the container mouth and applies pressure to the container against the container plate , characterised in that a neck clamp which can be adjusted with respect to a defined transfer level (N) and in parallel with the adjustment path of the centring element and can be actively opened and closed is provided at least for temporarily holding the container in the container neck region, in that the neck clamp can be moved synchronously with the centring element within the adjustment path of the centring element towards and at least into the clamping position, and in that , when the centring element is adjusted into the passive position, the neck clamp can be returned to the transfer level (N) with the container .
A ski, wherein the ski comprises: a. a ski core ; b. a ski coating which forms a lower side of the ski ; c. a base laminate (40; 50; 60; 70; 80; 90; 100) which is arranged between the ski core and the ski coating ; d. steel edges ; e. and sidewalls which are arranged between the ski core and an upper side of the steel edges which faces the ski core , wherein f. the base laminate (40; 50; 60; 70; 80; 90; 100) comprises peripheral regions (41, 42; 51, 52; 61, 62, 63, 64; 71, 72; 81, 82, 83, 84; 91, 92; 101, 102) which laterally protrude transverse to a longitudinal axis (L) of the ski and at least partially encompass the sidewalls in at least a portion of the ski . a. a ski core ; b. a ski coating which forms a lower side of the ski ; c. a base laminate (40; 50; 60; 70; 80; 90; 100) which is arranged between the ski core and the ski coating ; d. steel edges ; e. and sidewalls which are arranged between the ski core and an upper side of the steel edges which faces the ski core ,
A method for manufacturing a security element having a lenticular image for depicting one or more target images that are visible only from predetermined viewing directions and whose motifs are formed by visually perceptible, contrasting metallic and demetalized sub-regions of a motif layer, wherin in the method - a lenticular image having a lens grid composed of a plurality of microlenses and a metallic motif layer arranged spaced apart from the lens grid is provided, - the refractive effect of the microlenses defining a focal plane and the metallic motif layer being arranged substantially in said focal plane, - a line width is chosen for the demetalized sub-regions to be produced in the metallic motif layer , characterized in that - a marking laser source having a laser wavelength λ is selected such that the resolving power D(λ) of the microlenses of the lenticular image at the selected laser wavelength A substantially corresponds to the line width of the demetalized sub-regions to be produced, wherein the resolving power D(λ) of the microlenses of the lenticular image is determined by the formula D(λ) = 2.44* λ*f/d ML , where f is the focal length of the microlenses and d ML is the diameter of the microlenses, and - the metallic motif layer is impinged on through the microlenses with laser radiation of the selected marking laser source to produce demetalized sub-regions in the metallic motif layer. - a lenticular image having a lens grid composed of a plurality of microlenses and a metallic motif layer arranged spaced apart from the lens grid is provided, - the refractive effect of the microlenses defining a focal plane and the metallic motif layer being arranged substantially in said focal plane, - a line width is chosen for the demetalized sub-regions to be produced in the metallic motif layer , characterized in that - a marking laser source having a laser wavelength λ is selected such that the resolving power D(λ) of the microlenses of the lenticular image at the selected laser wavelength A substantially corresponds to the line width of the demetalized sub-regions to be produced, wherein the resolving power D(λ) of the microlenses of the lenticular image is determined by the formula D(λ) = 2.44* λ*f/d ML , where f is the focal length of the microlenses and d ML is the diameter of the microlenses, and - the metallic motif layer is impinged on through the microlenses with laser radiation of the selected marking laser source to produce demetalized sub-regions in the metallic motif layer.
An assembly-type cutter , comprising a shank and a cutter head , wherein: the shank has an end provided with a hole , the hole being provided therein with a receiving portion , the receiving portion including an internal thread ; and the cutter head has an end provided with a cutting portion and an opposite end extended with a connecting portion , the connecting portion including a threaded member so that the cutter head and the shank are threadedly connectable via the connecting portion and the receiving portion , the threaded member of the connecting portion having a body portion and an external thread on the body portion , the external thread of the threaded member having a major diameter defined as an outer diameter (Do), the body portion of the threaded member having a diameter defined as a root diameter (Di), the body portion being slightly tapered such that a locus of the root diameter (Di) has a small angle (θ) with respect to a longitudinal axis of the body portion , wherein the locus of the root diameter (Di) is a line connecting different tangent points on a tangent plane to the body portion and wherein the small angle (θ) ranges from 0.5° to 3°, characterized in that a locus of the outer diameter (Do) is parallel to the longitudinal axis of the body portion , wherein the locus of the outer diameter (Do) is a line connecting different tangent points on a tangent plane to the external thread . the shank has an end provided with a hole , the hole being provided therein with a receiving portion , the receiving portion including an internal thread ; and the cutter head has an end provided with a cutting portion and an opposite end extended with a connecting portion , the connecting portion including a threaded member so that the cutter head and the shank are threadedly connectable via the connecting portion and the receiving portion , the threaded member of the connecting portion having a body portion and an external thread on the body portion , the external thread of the threaded member having a major diameter defined as an outer diameter (Do), the body portion of the threaded member having a diameter defined as a root diameter (Di), the body portion being slightly tapered such that a locus of the root diameter (Di) has a small angle (θ) with respect to a longitudinal axis of the body portion , wherein the locus of the root diameter (Di) is a line connecting different tangent points on a tangent plane to the body portion and wherein the small angle (θ) ranges from 0.5° to 3°, characterized in that a locus of the outer diameter (Do) is parallel to the longitudinal axis of the body portion , wherein the locus of the outer diameter (Do) is a line connecting different tangent points on a tangent plane to the external thread .
A refrigerator cabinet comprising: an inner liner ; an external wrapper , the inner liner positioned within the external wrapper such that a gap is defined between the external wrapper and the inner liner , wherein the external wrapper defines a machine compartment comprising: a top wall ; an interior wall ; a bottom wall ; a first side wall ; and a second side wall ; and a foot defined by the external wrapper and positioned below the machine compartment , wherein the foot is at least partially defined by the bottom wall and at least partially supports the refrigerator cabinet , characterized in that the top wall has a greater depth than the bottom wall . an inner liner ; an external wrapper , the inner liner positioned within the external wrapper such that a gap is defined between the external wrapper and the inner liner , wherein the external wrapper defines a machine compartment comprising: a top wall ; an interior wall ; a bottom wall ; a first side wall ; and a second side wall ; and a top wall ; an interior wall ; a bottom wall ; a first side wall ; and a second side wall ; and a foot defined by the external wrapper and positioned below the machine compartment , wherein the foot is at least partially defined by the bottom wall and at least partially supports the refrigerator cabinet , characterized in that the top wall has a greater depth than the bottom wall .
A composition, containing a base material and metal effect pigments contained in the base material, wherein - the metal effect pigments are provided with a three dimensional shape selected from the following group: cube, pyramid having triangular outer surfaces, and tetrahedron; and - edges of the three dimensional shape are provided with an edge length of 20 μm to less than 200 μm. - the metal effect pigments are provided with a three dimensional shape selected from the following group: cube, pyramid having triangular outer surfaces, and tetrahedron; and - edges of the three dimensional shape are provided with an edge length of 20 μm to less than 200 μm.
A robotic lawnmower cutting arrangement (100; 100a; 100c) comprising a blade carrier (200; 200a) configured to be rotated by a cutting motor about a blade carrier rotation axis , the blade carrier extending radially away from the blade carrier rotation axis and comprising a blade attachment interface radially offset from the blade carrier rotation axis , the blade attachment interface being configured to pivotally hold a cutting blade (400; 400a; 400c; 400d; 400e); and a cutting blade (400; 400a; 400c; 400d; 400e) comprising a substantially flat cutting portion provided with a cutting edge , and a blade carrier interface pivotally connected to the blade attachment interface of the blade carrier (200; 200a), the pivotal connection thereby allowing the cutting blade (400; 400a; 400c; 400d; 400e) to pivot relative to the blade carrier (200; 200a) about a blade pivot axis offset from the blade carrier rotation axis such that, when the blade carrier (200; 200a) is rotated about the blade carrier rotation axis , the blade carrier interface of the cutting blade (400; 400a; 400c; 400d; 400e) follows a circular path in a blade carrier interface rotation plane perpendicular to the blade carrier rotation axis , and the cutting portion follows a circular path in a cutting plane , characterized in that the cutting edge extends within the cutting plane, and the cutting plane is axially, with respect to the carrier rotation axis , offset from the blade carrier interface rotation plane by a cutting plane offset distance . a blade carrier (200; 200a) configured to be rotated by a cutting motor about a blade carrier rotation axis , the blade carrier extending radially away from the blade carrier rotation axis and comprising a blade attachment interface radially offset from the blade carrier rotation axis , the blade attachment interface being configured to pivotally hold a cutting blade (400; 400a; 400c; 400d; 400e); and a cutting blade (400; 400a; 400c; 400d; 400e) comprising a substantially flat cutting portion provided with a cutting edge , and a blade carrier interface pivotally connected to the blade attachment interface of the blade carrier (200; 200a), the pivotal connection thereby allowing the cutting blade (400; 400a; 400c; 400d; 400e) to pivot relative to the blade carrier (200; 200a) about a blade pivot axis offset from the blade carrier rotation axis such that, when the blade carrier (200; 200a) is rotated about the blade carrier rotation axis , the blade carrier interface of the cutting blade (400; 400a; 400c; 400d; 400e) follows a circular path in a blade carrier interface rotation plane perpendicular to the blade carrier rotation axis , and the cutting portion follows a circular path in a cutting plane , characterized in that the cutting edge extends within the cutting plane, and the cutting plane is axially, with respect to the carrier rotation axis , offset from the blade carrier interface rotation plane by a cutting plane offset distance .
A multi-photon wavefront sensor system, comprising: a Shack-Hartmann wavefront sensor comprising a microlens array and a detector array, wherein the numerical aperture of the microlens array of the Shack-Hartmann wavefront sensor is > 0.4; and a laser excitation source configured to emit a plurality of laser pulses comprising 70-380 fs at a 4 MHz frequency at a wavelength in the near-infrared range between 1500 nm and 2200 nm to a detector material of the Shack-Hartmann wavefront sensor , wherein the plurality of laser pulses are configured to induce multi-photon absorption in the detector material of the Shack-Hartmann wavefront sensor . a Shack-Hartmann wavefront sensor comprising a microlens array and a detector array, wherein the numerical aperture of the microlens array of the Shack-Hartmann wavefront sensor is > 0.4; and a laser excitation source configured to emit a plurality of laser pulses comprising 70-380 fs at a 4 MHz frequency at a wavelength in the near-infrared range between 1500 nm and 2200 nm to a detector material of the Shack-Hartmann wavefront sensor , wherein the plurality of laser pulses are configured to induce multi-photon absorption in the detector material of the Shack-Hartmann wavefront sensor .
A method performed by a mobile device so as to perform network handover between wireless local area network devices , the mobile device being connected to a Voice-over-Wi-Fi, VoWiFi, voice service via a secure data tunnel between a packet data gateway of an LTE cellular network and a current wireless local area network , the method comprising the steps of: determining that a quality of a connection to the current wireless local area network is below a threshold value (s5); determining that a handover target wireless local area network is available, wherein the handover target wireless local area network is connected to the voice service (s7); establishing connectivity with the handover target wireless local area network (s9) from the current wireless local area network if a set of conditions are satisfied, the set of conditions comprising that (s7): handover to a wireless local area network is preferred for the mobile device; and the target handover target wireless local area network is not blacklisted; and sending a new network address of the mobile device to the packet data gateway using a set of credentials relating to the secure data tunnel, wherein an endpoint of the secure data tunnel is thereby changed to the new network address (s11). determining that a quality of a connection to the current wireless local area network is below a threshold value (s5); determining that a handover target wireless local area network is available, wherein the handover target wireless local area network is connected to the voice service (s7); establishing connectivity with the handover target wireless local area network (s9) from the current wireless local area network if a set of conditions are satisfied, the set of conditions comprising that (s7): handover to a wireless local area network is preferred for the mobile device; and the target handover target wireless local area network is not blacklisted; and handover to a wireless local area network is preferred for the mobile device; and the target handover target wireless local area network is not blacklisted; and sending a new network address of the mobile device to the packet data gateway using a set of credentials relating to the secure data tunnel, wherein an endpoint of the secure data tunnel is thereby changed to the new network address (s11).
A cooking apparatus having an automatic keep warm function, comprising: a heating source to heat a cooking chamber ; a temperature sensor to measure a temperature of the cooking chamber; an automatic keep warm setting unit to selectively set the automatic keep warm function; and a control unit configured, if the automatic keep warm function is set, to control the heating source to set the temperature of the cooking chamber to a normal cooking temperature for food in the cooking chamber for a first cooking time, so that the food in the cooking chamber is cooked at its normal cooking temperature; to control the heating source to set the temperature of the cooking chamber to a residual heat cooking temperature lower than the normal cooking temperature for a second cooking time, defining a residual heat cooking mode in which the food in the cooking chamber is cooked by residual heat of the heating source; and to control the heating source to set the temperature of the cooking chamber to be a keep warm temperature lower than the residual heat cooking temperature, when cooking of the food in the cooking chamber is completed by cooking the food at the normal cooking temperature for the first cooking time and cooking the food in the residual heat cooking mode for the second cooking time. a heating source to heat a cooking chamber ; a temperature sensor to measure a temperature of the cooking chamber; an automatic keep warm setting unit to selectively set the automatic keep warm function; and a control unit configured, if the automatic keep warm function is set, to control the heating source to set the temperature of the cooking chamber to a normal cooking temperature for food in the cooking chamber for a first cooking time, so that the food in the cooking chamber is cooked at its normal cooking temperature; to control the heating source to set the temperature of the cooking chamber to a residual heat cooking temperature lower than the normal cooking temperature for a second cooking time, defining a residual heat cooking mode in which the food in the cooking chamber is cooked by residual heat of the heating source; and to control the heating source to set the temperature of the cooking chamber to be a keep warm temperature lower than the residual heat cooking temperature, when cooking of the food in the cooking chamber is completed by cooking the food at the normal cooking temperature for the first cooking time and cooking the food in the residual heat cooking mode for the second cooking time.
Measurement device that can be attached to an outer wall of a mobile object or of a fixed object located in a flow comprising a support having recesses provided with an opening emerging outwards at the free face of the support in which sensors are housed, characterized in that the support comprises a cavity produced on the face of the support intended to come into contact with said outer wall and opposite the face in which the recesses emerge and in which is housed a flexible printed circuit on which there is provided a single control circuit for the sensors , the printed circuit comprising the control circuit and the sensors .
An adhesive film for temporarily fixing an electronic component when encapsulating the electronic component with an epoxy resin based encapsulating material by compression molding in a manufacturing process of a semiconductor device, the film comprising: a base material layer; and an adhesive resin layer (A) provided on a first surface side of the base material layer for temporarily fixing the electronic component, characterized in that the surface free energy of a surface of the adhesive resin layer (A) is equal to or more than 20.0 mN/m and equal to or less than 38.0 mN/m. a base material layer; and an adhesive resin layer (A) provided on a first surface side of the base material layer for temporarily fixing the electronic component, characterized in that the surface free energy of a surface of the adhesive resin layer (A) is equal to or more than 20.0 mN/m and equal to or less than 38.0 mN/m.