Abstract: A bullet cartridge (1) may include a bullet case (3) defining a caliber diameter (D), a projectile (4) inserted into the neck portion (31) of the bullet case (3), and at least one annular layer (51, 52) of a sealing medium (5) formed from a sealing medium (5) between the bullet case (3) and the projectile (4). The bullet case (3) may be provided with the annular layer (51, 52) using a microdosing device (microdoser) (7). The annular layer may include not more than 1 mg of sealing medium (5) per mm of caliber diameter (D).

Abstract: A jacket projectile, such as an armour-piercing projectile, for ammunition, such as with a caliber of less than 13 mm, may include a core, a jacket, in particular tapering ogive-like and surrounding the core, and a guide shoe arranged between the core and the jacket. The core may be provided rear-sided with a profiling on its outer circumference, according to which the guide shoe is adapted in a shape-complementary manner in such a way that an anti-twist securing is formed between the guide shoe and the core.

Abstract: A jacket projectile, in particular an armor-piercing projectile, for ammunition, in particular with a caliber of less than 13 mm, may include a core, a jacket, in particular tapering ogive-like and surrounding the core, and a guide shoe arranged between the core and the jacket. The material of the jacket and the guide shoe may be matched to one another in such a way that a quotient of a modulus of elasticity/density ratio ( E guide ? shoe ? guide ? shoe ) of the guide shoe to a modulus of elasticity/density ratio ( E core ? core ) of the core is greater than 0.5, in particular greater than 0.55 or greater than 0.6.

Abstract: A jacket projectile, in particular an armour-piercing projectile, for ammunition, such as with a caliber of less than 13 mm, may include a core, a jacket, in particular tapering ogive-like and surrounding the core, and a guide shoe arranged between the core and the jacket. The guide shoe and the jacket may have a matching, in particular form-fitting interlocking, rib-recess structure.

Abstract: In a bullet cartridge (1) comprising a bullet case (3) defining a caliber diameter (D), a projectile (4) inserted into the neck portion (31) of the bullet case (3), and at least one annular layer (51, 52) of a sealing medium (5) formed from a sealing medium (5) between the bullet case (3) and the projectile (4), it is provided that the annular layer (51, 52) is applied by means of microdosing and/or comprises not more than 1 mg of sealing medium (5) per mm of caliber diameter (D).

Abstract: The present invention relates to a bullet, in particular precision bullet, comprising a bullet core with a bow-side section, a tail-side section with a bullet base and a guide band located therebetween, and a bullet jacket completely surrounding the bullet core, wherein in the region of the bullet core tail axially offset from the guide band and/or in the region of a tail-side end face of the bullet core base and/or in the region of the bullet core bow axially offset from the guide band a profiling is placed, in accordance with the bullet jacket, adapts complementary in shape in in such a way that an anti-rotation structure is formed between the bullet jacket and the bullet core.

Abstract: An apparatus to process a plurality of electrical wires as well as a method that uses the apparatus are indicated. The apparatus includes a feed device, a stationary holding device, a holding device that is non-stationary along a linear guiding direction, a non-stationary bundling device that is separate from the non-stationary holding device and a controller connected to a drive of the non-stationary bundling device. The stationary holding device and/or the non-stationary holding device are configured to twist the respectively held end of the wires; The controller controls the drive in such a way that a distance between a bundling segment of the non-stationary bundling device and the non-stationary holding device assumes a specified or a specifiable distance.

Abstract: In an example embodiment, a persistence model is utilized that allows the storage of value lists in a referenceable and reusable manner. This allows for two lifecycle options for value lists: (i) schema-dependent and (ii) schema-independent. Thus, the lifecycle of all involved entities (e.g., schemas, values, correspondences, etc.) is managed. This enables easier upgrades, downgrades, and sidegrades. The persistence is a directed graph, which comprises nodes and directed edges. This persistence can then be used to recommend additional correspondences to a user.

Abstract: Summary The present invention relates to a bullet, in particular precision bullet, comprising a bullet core with a bow-side section, a tail-side section with a bullet base and a guide band located therebetween, and a bullet jacket completely surrounding the bullet core, wherein in the region of the bullet core tail axially offset from the guide band and/or in the region of a tail-side end face of the bullet core base and/or in the region of the bullet core bow axially offset from the guide band a profiling is placed, in accordance with the bullet jacket, adapts complementary in shape in in such a way that an anti-rotation structure is formed between the bullet jacket and the bullet core.

Abstract: An apparatus to process a plurality of electrical wires as well as a method that uses the apparatus are indicated. The apparatus includes a feed device, a stationary holding device, a holding device that is non-stationary along a linear guiding direction, a non-stationary bundling device that is separate from the non-stationary holding device and a controller connected to a drive of the non-stationary bundling device. The stationary holding device and/or the non-stationary holding device are configured to twist the respectively held end of the wires; The controller controls the drive in such a way that a distance between a bundling segment of the non-stationary bundling device and the non-stationary holding device assumes a specified or a specifiable distance.

Abstract: The heating plate (2) for workpieces comprises a heatable body (20) which on a first side has a contact surface (15) for the respective workpiece, at least one heating channel (25) filled with a heating fluid for heating the heatable body (20), which heating channel (25) is formed in and/or on the heatable body (20) opposite the contact surface (15) and heating means (35) for heating the heating fluid. A channel wall (25.1) of the respective heating channel (25) may be inductively heated and the heating means (35) comprise at least one heating device (35.1) for inductively heating the respective channel wall (25.1), the heating device (35.1) being arranged outside the respective heating channel (25) and the heating fluid in the respective heating channel (25) being able to be heated by a transfer of heat which may be generated by means of the heating device (35.1) in the channel wall (25.1).

Abstract: The apparatus for laminating a solar module includes a press for pressing and heating the solar module including: a first press part and a second press part between which an evacuable cavity is formed; a bearing surface for the solar module disposed in the cavity; a heater being disposed in the cavity and being movable relative to the bearing surface so that the solar module can be pressed via the heater against the bearing surface. The press includes one or more sealing bodies being disposed in an intermediate space between the heater and the first press part and/or in an intermediate space between the heater and the second press part and being brought into contact with the heater and at least one of the press parts so that the cavity is divided into at least two chambers being separated from one another in an airtight manner.

Abstract: The apparatus for laminating a solar module (2) comprises a press (1) for pressing and heating the respective solar module (2). The press (1) comprises: a first press part (3) and a second press part (4) between which press parts (3, 4) an evacuable cavity (37) is formed; a bearing surface (29) for the respective solar module (2) disposed in the cavity (37), and a heater (15) which is disposed in the cavity (37) and which is movable relative to the bearing surface (29) in such a manner that the respective solar module (2) can be pressed by means of the heater (15) with respect to the bearing surface (29).

Abstract: The heating plate (2) for workpieces comprises a heatable body (20) which on a first side has a contact surface (15) for the respective workpiece, at least one heating channel (25) filled with a heating fluid for heating the heatable body (20), which heating channel (25) is formed in and/or on the heatable body (20) opposite the contact surface (15) and heating means (35) for heating the heating fluid. A channel wall (25.1) of the respective heating channel (25) may be inductively heated and the heating means (35) comprise at least one heating device (35.1) for inductively heating the respective channel wall (25.1), the heating device (35.1) being arranged outside the respective heating channel (25) and the heating fluid in the respective heating channel (25) being able to be heated by a transfer of heat which may be generated by means of the heating device (35.1) in the channel wall (25.1).